WO2015089116A1

WO2015089116A1 - Building automation control systems

Info

Publication number: WO2015089116A1
Application number: PCT/US2014/069408
Authority: WO
Inventors: David Quam; Kevin Weirich; Aaron Klein; Gabriel Bergman; Christopher Goh; Jonathan Frenz; Riley Gerszewski; Rudolph Gamberini; Steven Nichols; Petr Adamik; Ricardo Gonzalez; Pavel Marak; Josef Novotny; Eric Barton; Brad Paine; Michael Bruce
Original assignee: Honeywell International Inc.
Priority date: 2013-12-11
Filing date: 2014-12-09
Publication date: 2015-06-18
Also published as: US10712718B2; US20150159904A1; EP3080967A1; US20150163945A1; CN106031129A; US20150160633A1; US20150159900A1; US20150159895A1; US10649418B2; US10768589B2; US10591877B2; US20150159899A1; US10534331B2; US20150159901A1; EP3080967B1; US9587848B2; EP3961995A1; US20200133214A1; US20150159902A1; CN113203168A

Abstract

A building automation system may adjust operation of a building system based upon information regarding the relative location of one or more users of the building automation system. In some embodiments, a mobile device having location services for determining a location of the mobile device may provide this information. A mobile device may include a user interface, a memory for storing two or more predetermined geo-fences each defining a different sized region about a home of a user of the mobile device and a controller operatively coupled to user interface and the memory, the controller configured to accept a selection of one of the two or more predetermined geo-fences via the user interface. The controller may report when the location of the mobile device crosses the selected one of the two or more predetermined geo-fences to a remote device. Other geofencing approaches are also described.

Description

BUILDING AUTOMATION CONTROL SYSTEMS

RELATED APPLICATIONS

This application claims the benefit of U.S. Provisional Application No.

62/009,856, filed June 9, 2014, and entitled "METHOD AND APPARATUS FOR CONTROLLING AN HVAC SYSTEM", and U.S. Provisional Application No. 61/914,877, filed December 11, 2013, and entitled "METHOD AND APPARATUS FOR CONTROLLING AN HVAC SYSTEM", both of which are incorporated herein by reference.

BACKGROUND

Heating, ventilation, and/or air conditioning (HVAC) systems are often used to control the comfort level within a building or other structure. Such HVAC systems typically include an HVAC controller that controls various HVAC components of the HVAC system in order to affect and/or control one or more environmental conditions within the building. Improvements in the hardware, the user experience, and the functionality of such systems are desirable.

SUMMARY

This disclosure relates to methods and apparatus for controlling a building automation system. A building automation system may regulate operation of various building systems such as heating and cooling, lighting, security systems, and the like, and may adjust operation based upon information regarding the relative location of one or more users of the building automation system. In some embodiments, a mobile device having location services for determining a location of the mobile device may provide this information. A mobile device may include a user interface, a memory for storing two or more predetermined geo-fences each defining a different sized region about a home of a user of the mobile device and a controller operatively coupled to user interface and the memory. The controller may be configured to accept a selection of one of the two or more predetermined geo-fences via the user interface. The controller may report when the location of the mobile device crosses the selected one of the two or more predetermined geo-fences to a remote device. In some instances, one or more user defined geofence may be used. In some cases, the size of a region of a geo-fence may automatically be increased if the controller receives an indication from a user that the current geo-fence is too sensitive, and/or the size of the region of the current geo-fence may

automatically be decreased if the controller receives an indication from a user that the geo-fence is not sensitive enough. In some instances, a geofence schedule may be provided, where different geofence boundaries may be activated at different times according to the geofence schedule. These are just some example geofencing approaches that may be used in conjunction with a building automation system. BRIEF DESCRIPTION OF DRAWINGS

Figure 1 is a schematic view of an illustrative HVAC system servicing a building or structure;

Figure 2 is a schematic view of an illustrative HVAC control system that may facilitate access and/or control of the HVAC system of Figure 1;

Figure 3 is a schematic block diagram of an illustrative HVAC controller;

Figure 4 is a front elevation view of an illustrative HVAC controller;

Figure 5 is an exploded view of the illustrative HVAC controller of Figure 4; Figure 6 is a cross-sectional view of an illustrative HVAC controller showing an illustrative rotational damping assembly;

Figure 7 is a perspective view of an illustrative assembly and method for encoding rotation of a turning ring;

Figure 8 is a perspective view of an illustrative code wheel or turning ring; Figure 9 is a perspective view of another illustrative code wheel with a reflective code mounted to an inner extending flange;

Figure 10 is a cross-sectional perspective view of the illustrative code wheel of Figure 9 mounted in an HVAC controller, such as the HVAC controller of Figure 4;

Figure 1 1 is a perspective view of a user's finger turning an outer ring of an illustrative HVAC controller, such as the HVAC controller of Figure 4;

Figure 12 is a perspective view of an illustrative light guide ring for an HVAC controller, such as the HVAC controller of Figure 4;

Figure 13 is a detailed view of a light input region of the light guide ring of Figure 12; Figure 14 is another detailed view of the light input region of the light guide ring of Figure 12;

Figure 15 is a detailed view of the light extraction region of the light guide ring of Figure 12;

Figure 16 is an elevation view of the light guide ring of Figure 12 mounted in relation to a printed circuit board;

Figure 17 is a flow diagram showing an illustrative method for illuminating a light guide ring, such as the light guide ring of Figure 12;

Figure 18 is a block diagram of principal settings for an illustrative thermostat and its interactions with networked components;

Figure 19 is a block diagram of an illustrative building automation system that utilizes user-defined macros;

Figure 20 is a block diagram of a remote user device that can be utilized with the building automation system of Figure 19;

Figure 21 is a flow diagram showing a method that may be carried out using the building automation system of Figure 19 and the remote user device of Figure 20;

Figures 22-28 are an illustrative flow diagram of programming one-touch actions (e.g. macros);

Figure 29 is a block diagram of an illustrative mobile device that can be used to program an illustrative HVAC controller of a building automation system;

Figure 30 is a block diagram of another illustrative mobile device that can be used to program an illustrative HVAC controller of a building automation system;

Figure 31 is a flow diagram of an illustrative method that may be carried out using the mobile devices of Figures 29 and/or Figure 30;

Figure 32-40 schematically illustrates the display of messages related to the operation of a thermostat on a mobile device;

Figure 41 is a schematic diagram of an illustrative method for utilizing geofencing in a building automation system;

Figure 42 is a schematic block diagram of an illustrative building automation system that may be used with geofencing;

Figure 43 is a schematic block diagram of another building automation system that may be use with geofencing; Figure 44 is a schematic block diagram of another building automation system that may be use with geofencing;

Figure 45 shows an illustrative screen that may be displayed on the user interface of a remote device (e.g. mobile device) by an application program code through which a user may select between a small and a large proximity boundary setting for geofencing;

Figures 46-49 show illustrative screens that may be displayed on the user interface of a remote device (e.g. mobile device) by an application program code that may guide a user through selecting an appropriate proximity boundary;

Figure 50 shows another illustrative setting screen that may be displayed on the user interface of a remote device (e.g. mobile device) by an application program code through which a user may select an appropriate geofence setting;

Figure 51 shows an illustrative screen through which a user may customize a proximity boundary; and

Figures 52-54 show illustrative screens through which a user may customize a proximity boundary.

While the disclosure is amenable to various modifications and alternative forms, specifics thereof have been shown by way of example in the drawings and will be described in detail. It should be understood, however, that the intention is not to limit aspects of the disclosure to the particular illustrative embodiments described. On the contrary, the intention is to cover all modifications, equivalents, and alternatives falling within the spirit and scope of the disclosure.

DESCRIPTION

The following description should be read with reference to the drawings wherein like reference numerals indicate like elements. The drawings, which are not necessarily to scale, are not intended to limit the scope of the disclosure. In some of the figures, elements not believed necessary to an understanding of relationships among illustrated components may have been omitted for clarity.

All numbers are herein assumed to be modified by the term "about", unless the content clearly dictates otherwise. The recitation of numerical ranges by endpoints includes all numbers subsumed within that range (e.g., 1 to 5 includes 1, 1.5, 2, 2.75, 3, 3.80, 4, and 5). As used in this specification and the appended claims, the singular forms "a", "an", and "the" include the plural referents unless the content clearly dictates otherwise. As used in this specification and the appended claims, the term "or" is generally employed in its sense including "and/or" unless the content clearly dictates otherwise.

It is noted that references in the specification to "an embodiment", "some embodiments", "other embodiments", etc., indicate that the embodiment described may include a particular feature, structure, or characteristic, but every embodiment may not necessarily include the particular feature, structure, or characteristic.

Moreover, such phrases are not necessarily referring to the same embodiment.

Further, when a particular feature, structure, or characteristic is described in connection with an embodiment, it is contemplated that the feature, structure, or characteristic may be applied to other embodiments whether or not explicitly described unless clearly stated to the contrary.

The present disclosure is directed generally at building automation system.

Building automation systems are systems that control one or more operations of a building. Building automation systems can include HVAC systems, security systems, fire suppression systems, energy management systems and other systems. While HVAC systems are used as an example below, it should be recognized that the concepts disclosed herein can be applied to building control systems more generally.

Figure 1 is a schematic view of a building 2 having an illustrative heating, ventilation, and air conditioning (HVAC) system 4. While Figure 1 shows a typical forced air type HVAC system, other types of HVAC systems are contemplated including, but not limited to, boiler systems, radiant heating systems, electric heating systems, cooling systems, heat pump systems, and/or any other suitable type of

HVAC system, as desired. The illustrative HVAC system 4 of Figure 1 includes one or more HVAC components 6, a system of ductwork and air vents including a supply air duct 10 and a return air duct 14, and one or more HVAC controllers 18. The one or more HVAC components 6 may include, but are not limited to, a furnace, a heat pump, an electric heat pump, a geothermal heat pump, an electric heating unit, an air conditioning unit, a humidifier, a dehumidifier, an air exchanger, an air cleaner, a damper, a valve, and/or the like. It is contemplated that the HVAC controller(s) 18 may be configured to control the comfort level in the building or structure by activating and deactivating the HVAC component(s) 6 in a controlled manner. The HVAC controller(s) 18 may be configured to control the HVAC component(s) 6 via a wired or wireless communication link 20. In some cases, the HVAC controller(s) 18 may be a thermostat, such as, for example, a wall mountable thermostat, but this is not required in all embodiments. Such a thermostat may include (e.g. within the thermostat housing) or have access to a temperature sensor for sensing an ambient temperature at or near the thermostat. In some instances, the HVAC controller(s) 18 may be a zone controller, or may include multiple zone controllers each monitoring and/or controlling the comfort level within a particular zone in the building or other structure.

In the illustrative HVAC system 4 shown in Figure 1 , the HVAC

component(s) 6 may provide heated air (and/or cooled air) via the ductwork throughout the building 2. As illustrated, the HVAC component(s) 6 may be in fluid communication with every room and/or zone in the building 2 via the ductwork 10 and 14, but this is not required. In operation, when a heat call signal is provided by the HVAC controller(s) 18, an HVAC component 6 (e.g. forced warm air furnace) may be activated to supply heated air to one or more rooms and/or zones within the building 2 via supply air ducts 10. The heated air may be forced through supply air duct 10 by a blower or fan 22. In this example, the cooler air from each zone may be returned to the HVAC component 6 (e.g. forced warm air furnace) for heating via return air ducts 14. Similarly, when a cool call signal is provided by the HVAC controller(s) 18, an HVAC component 6 (e.g. air conditioning unit) may be activated to supply cooled air to one or more rooms and/or zones within the building or other structure via supply air ducts 10. The cooled air may be forced through supply air duct 10 by the blower or fan 22. In this example, the warmer air from each zone may be returned to the HVAC component 6 (e.g. air conditioning unit) for cooling via return air ducts 14. In some cases, the HVAC system 4 may include an internet gateway or other device 23 that may allow one or more of the HVAC components, as described herein, to communicate over a wide area network (WAN) such as, for example, the Internet. In some cases, the system of vents or ductwork 10 and/or 14 can include one or more dampers 24 to regulate the flow of air, but this is not required. For example, one or more dampers 24 may be coupled to one or more HVAC controller(s) 18, and can be coordinated with the operation of one or more HVAC components 6. The one or more HVAC controller(s) 18 may actuate dampers 24 to an open position, a closed position, and/or a partially open position to modulate the flow of air from the one or more HVAC components to an appropriate room and/or zone in the building or other structure. The dampers 24 may be particularly useful in zoned HVAC systems, and may be used to control which zone(s) receives conditioned air from the HVAC component(s) 6.

In many instances, one or more air filters 30 may be used to remove dust and other pollutants from the air inside the building 2. In the illustrative example shown in Figure 1, the air filter(s) 30 is installed in the return air duct 14, and may filter the air prior to the air entering the HVAC component 6, but it is contemplated that any other suitable location for the air filter(s) 30 may be used. The presence of the air filter(s) 30 may not only improve the indoor air quality, but may also protect the HVAC components 6 from dust and other particulate matter that would otherwise be permitted to enter the HVAC component.

In some cases, and as shown in Figure 1, the illustrative HVAC system 4 may include an equipment interface module (EIM) 34. When provided, the equipment interface module 34 may, in addition to controlling the HVAC under the direction of the thermostat, be configured to measure or detect a change in a given parameter between the return air side and the discharge air side of the HVAC system 4. For example, the equipment interface module 34 may measure a difference in

temperature, flow rate, pressure, or a combination of any one of these parameters between the return air side and the discharge air side of the HVAC system 4. In some cases, the equipment interface module 34 may be adapted to measure the difference or change in temperature (delta T) between a return air side and discharge air side of the HVAC system 4 for the heating and/or cooling mode. The delta T for the heating and cooling modes may be calculated by subtracting the return air temperature from the discharge air temperature (e.g. delta T = discharge air temperature - return air temperature) In some cases, the equipment interface module 34 may include a first temperature sensor 38a located in the return (incoming) air duct 14, and a second temperature sensor 38b located in the discharge (outgoing or supply) air duct 10. Alternatively, or in addition, the equipment interface module 34 may include a differential pressure sensor including a first pressure tap 39a located in the return (incoming) air duct 14, and a second pressure tap 39b located downstream of the air filter 30 to measure a change in a parameter related to the amount of flow restriction through the air filter 30. In some cases, the equipment interface module 34, when provided, may include at least one flow sensor that is capable of providing a measure that is related to the amount of air flow restriction through the air filter 30. In some cases, the equipment interface module 34 may include an air filter monitor. These are just some examples.

When provided, the equipment interface module 34 may be configured to communicate with the HVAC controller 18 via, for example, a wired or wireless communication link 42. In other cases, the equipment interface module 34 may be incorporated or combined with the HVAC controller 18. In either cases, the equipment interface module 34 may communicate, relay or otherwise transmit data regarding the selected parameter (e.g. temperature, pressure, flow rate, etc.) to the HVAC controller 18. In some cases, the HVAC controller 18 may use the data from the equipment interface module 34 to evaluate the system's operation and/or performance. For example, the HVAC controller 18 may compare data related to the difference in temperature (delta T) between the return air side and the discharge air side of the HVAC system 4 to a previously determined delta T limit stored in the HVAC controller 18 to determine a current operating performance of the HVAC system 4.

Figure 2 is a schematic view of an HVAC control system 50 that facilitates remote access and/or control of the HVAC system 4 shown in Figure 1. The HVAC control system 50 may be considered a building control system or part of a building control system. The illustrative HVAC control system 50 includes an HVAC controller, as for example, HVAC controller 18 (see Figure 1) that is configured to communicate with and control one or more HVAC components 6 of the HVAC system 4. As discussed above, the HVAC controller 18 may communicate with the one or more HVAC components 6 of the HVAC system 4 via a wired or wireless link. Additionally, the HVAC controller 18 may communicate over one or more wired or wireless networks that may accommodate remote access and/or control of the HVAC controller 18 via another device such as a smart phone, tablet, e-reader, laptop computer, personal computer, key fob, or the like. As shown in Figure 2, the HVAC controller 18 may include a first communications port 52 for communicating over a first network 54, and in some cases, a second communications port 56 for

communicating over a second network 58. In some cases, the first network 54 may be a wireless local area network (LAN), and the second network 58 (when provided) may be a wide area network or global network (WAN) including, for example, the Internet. In some cases, the wireless local area network 54 may provide a wireless access point and/or a network host device that is separate from the HVAC controller 18. In other cases, the wireless local area network 54 may provide a wireless access point and/or a network host device that is part of the HVAC controller 18. In some cases, the wireless local area network 54 may include a local domain name server (DNS), but this is not required for all embodiments. In some cases, the wireless local area network 54 may be an ad-hoc wireless network, but this is not required.

In some cases, the HVAC controller 18 may be programmed to communicate over the second network 58 with an external web service hosted by one or more external web server 66. A non-limiting example of such an external web service is Honeywell's TOTAL CONNECT™ web service. The HVAC controller 18 may be configured to upload selected data via the second network 58 to the external web service where it may be collected and stored on the external web server 66. In some cases, the data may be indicative of the performance of the HVAC system 4.

Additionally, the HVAC controller 18 may be configured to receive and/or download selected data, settings and/or services sometimes including software updates from the external web service over the second network 58. The data, settings and/or services may be received automatically from the web service, downloaded periodically in accordance with a control algorithm, and/or downloaded in response to a user request. In some cases, for example, the HVAC controller 18 may be configured to receive and/or download an HVAC operating schedule and operating parameter settings such as, for example, temperature set points, humidity set points, start times, end times, schedules, window frost protection settings, and/or the like from the web server 66 over the second network 58. In some instances, the HVAC controller 18 may be configured to receive one or more user profiles having at least one operational parameter setting that is selected by and reflective of a user's preferences. In still other instances, the HVAC controller 18 may be configured to receive and/or download firmware and/or hardware updates such as, for example, device drivers from the web server 66 over the second network 58. Additionally, the HVAC controller 18 may be configured to receive local weather data, weather alerts and/or warnings, major stock index ticker data, and/or news headlines over the second network 58. These are just some examples.

Depending upon the application and/or where the HVAC user is located, remote access and/or control of the HVAC controller 18 may be provided over the first network 54 and/or the second network 58. A variety of remote wireless devices 62 may be used to access and/or control the HVAC controller 18 from a remote location (e.g. remote from the HVAC Controller 18) over the first network 54 and/or second network 58 including, but not limited to, mobile phones including smart phones, tablet computers, laptop or personal computers, wireless network-enabled key fobs, e-readers, and/or the like. In many cases, the remote wireless devices 62 are configured to communicate wirelessly over the first network 54 and/or second network 58 with the HVAC controller 18 via one or more wireless communication protocols including, but not limited to, cellular communication, ZigBee,

REDLINK™, Bluetooth, WiFi, IrDA, dedicated short range communication (DSRC), EnOcean, and/or any other suitable common or proprietary wireless protocol, as desired.

In some cases, an application program code (i.e. app) stored in the memory of the remote device 62 may be used to remotely access and/or control the HVAC controller 18. The application program code (app) may be provided for downloading from an external web service, such as the web service hosted by the external web server 66 (e.g. Honeywell's TOTAL CONNECT™ web service) or another external web service (e.g. ITUNES® or Google Play). In some cases, the app may provide a remote user interface for interacting with the HVAC controller 18 at the user's remote device 62. For example, through the user interface provided by the app, a user may be able to change the operating schedule and operating parameter settings such as, for example, temperature set points, humidity set points, start times, end times, schedules, window frost protection settings, accept software updates and/or the like. Communications may be routed from the user's remote device 62 to the web server 66 and then, from the web server 66 to the HVAC controller 18. In some cases, communications may flow in the opposite direction such as, for example, when a user interacts directly with the HVAC controller 18 to change an operating parameter setting such as, for example, a schedule change or a set point change. The change made at the HVAC controller 18 may then be routed to the web server 66 and then from the web server 66 to the remote device 62 where it may reflected by the application program executed by the remote device 62.

In other cases, a user may be able to interact with the HVAC controller 18 via a user interface provided by one or more web pages served up by the web server 66. The user may interact with the one or more web pages using a variety of internet capable devices to effect a change at the HVAC controller 18 as well as view usage data and energy consumption date related to the usage of the HVAC system 4. In still yet another case, communication may occur between the user's remote device 62 and the HVAC controller 18 without being relayed through a server. These are just some examples.

Figure 3 is an illustrative schematic block diagram of the HVAC controller 18 of Figure 2. As discussed above with reference to Figure 2, the HVAC controller 18 may be accessed and/or controlled from a remote location over the first network 54 and/or the second network 58 using a remote wireless device 62 such as, for example, a smart phone, a tablet computer, a laptop or personal computer, a wireless network- enabled key fob, an e-reader, and/or the like. In some instances, the HVAC controller 18 may be a thermostat, but this is not required. As shown in Figure 3, the HVAC controller 18 may include a communications block 60 having a first communications port 52 for communicating over a first network (e.g. a wireless LAN) and a second communications port 56 for communicating over a second network (e.g. a WAN or the Internet). The first communications port 52 can be a wireless communications port including a wireless transceiver for wirelessly sending and/or receiving signals over a first wireless network 54. Similarly, the second communications port 56 may be a wireless communications port including a wireless transceiver for sending and/or receiving signals over a second wireless network 58. In some cases, the second communications port 56 may be in communication with a wired or wireless router or gateway for connecting to the second network, but this is not required. In some cases, the router or gateway may be integral to the HVAC controller 18 or may be provided as a separate device. Additionally, the illustrative HVAC controller 18 may include a processor (e.g. microprocessor, microcontroller, etc.) 64 and a memory 72. The HVAC controller 18 may also include a user interface 108, but this is not required. In some cases, HVAC controller 18 may include a timer (not shown). The timer may be integral to the processor 64 or may be provided as a separate component. The memory 72 of the illustrative HVAC controller 18 may be in communication with the processor 64. The memory 72 may be used to store any desired information, such as the aforementioned control algorithm, set points, schedule times, diagnostic limits such as, for example, differential pressure limits, delta T limits, and the like. The memory 72 may be any suitable type of storage device including, but not limited to, RAM, ROM, EPROM, flash memory, a hard drive, and/or the like. In some cases, the processor 64 may store information within the memory 72, and may subsequently retrieve the stored information from the memory 72.

In many cases, the HVAC controller 18 may include an input/output block

(I/O block) 78 having a number of wire terminals (e.g. 80a-80c) for receiving one or more signals from the HVAC system 4 and/or for providing one or more control signals to the HVAC system 4. For example, the I O block 78 may communicate with one or more HVAC components 6 of the HVAC system 4. The HVAC controller 18 may have any number of wire terminals for accepting a connection from one or more HVAC components 6 of the HVAC system 4. However, how many wire terminals are utilized and which terminals are wired is dependent upon the particular configuration of the HVAC system 4. Different HVAC systems 4 having different HVAC components and/or type of HVAC components 6 may have different wiring configurations. As such, an I O block having four wire terminals, as shown in Figure 2, is just one example and is not intended to be limiting. Alternatively, or in addition to, the I/O block 78 may communicate with another controller, which is in communication with one or more HVAC components of the HVAC system 4, such as a zone control panel in a zoned HVAC system, equipment interface module (EIM) (e.g. EIM 34 shown in Figure 1) or any other suitable building control device.

In some cases, a power-transformation block 82 may be connected to one or more wires of the I/O block 78, and may be configured to bleed or steal energy from the one or more wires of the I/O block 78. The power bled off of the one or more wires of the I/O block may be stored in an energy storage device 86 that may be used to at least partially power the HVAC controller 18. In some cases, the energy storage device 86 may be capacitor or a rechargeable battery. In addition, the HVAC controller 18 may also include a back-up source of energy such as, for example, a battery that may be used to supplement power supplied to the HVAC controller 18 when the amount of available power stored by the energy storage device 86 is less than optimal or is insufficient to power certain applications. Certain applications or functions performed by the HVAC controller may require a greater amount of energy than others. If there is an insufficient amount of energy stored in the energy storage device 86, then, in some cases, certain applications and/or functions may be prohibited by the processor 64.

The HVAC controller 18 may also include one or more sensors such as for example, a temperature sensor, a humidity sensor, an occupancy sensor, a proximity sensor, and/or the like. In some cases, the HVAC controller 18 may include an internal temperature sensor 90, as shown Figure 3, but this is not required. The HVAC controller 18 may also communicate with one or more remote temperature sensors, humidity sensors, and/or occupancy sensors located throughout the building or structure. Additionally, the HVAC controller may communicate with a temperature sensor and/or humidity sensor located outside of the building or structure for sensing an outdoor temperature and/or humidity if desired.

In some cases, the HVAC controller 18 may include a sensor 92 that is configured determine if a user is in proximity to the building controller. In some cases, the sensor 92 may be a motion sensor or a proximity sensor such as, for example, a passive infrared (PI ) sensor. In certain cases in which the sensor 92 is a motion sensor or a proximity sensor, the sensor 92 may be located remotely from the HVAC controller 18 and may be in wireless communication with the HVAC controller 18 via one of the communication ports.

In other cases, the sensor 92 may be configured to determine that the user is near or expected to be near the HVAC controller 18 based, at least in part, on the location data provided by a location based service application program executed by a user's remote device 62 that the user utilizes to interact with the HVAC controller 18 from a remote location. The location data generated by the location based services app may be transmitted from the user's remote device 62 directly to the HVAC controller 18 or, in some cases, may be transmitted to the HVAC controller 18 via a server 66 (e.g. Honeywell's TOTAL CONNECT™ server) to which both the HVAC controller 18 and the user's remote device 62 may be connected. In some cases, the sensor 92 may be configured to determine that the user or, more specifically, the user's remote device 62 has crossed at least one of two or more proximity boundaries relative to the location of the HVAC controller 18 based on location data provided by the user's remote device that the user utilizes to interact with the HVAC controller 18. The user's remote device 62 may determine that the user has crossed a proximity boundary by comparing the location data generated by sensor 92 of the user's remote device 62 to a predetermined fixed location or boundary. In some cases, the proximity boundary(s) may be defined by a radius extending outward from a predetermined fixed location. The predetermined fixed location may be the location of the HVAC controller 18 or another selected location such as, for example, the user's workplace. Alternatively, or in addition to, the proximity boundary(s) may be customized by the user and may have any shape and or size that appropriately reflects the user's local and/or daily travel habits. For example, at least one proximity boundary may be configured by the user to have the same general size and/or shape of the city in which their home or workplace is located.

In yet another example, the sensor 92 may be configured to determine that the user is in proximity to or is expected to be in proximity to the HVAC controller 18 upon detecting that the user's remote device 62 is connected to the building's wireless network which, in some cases, may be the same network to which the HVAC controller 18 is also connected. Such functionality is shown and described in U.S. Patent Publication No. 2014/0031989 entitled "HVAC CONTROLLER WITH WIRELESS NETWORK BASED OCCUPANCY DETECTION AND CONTROL", the entirety of which is incorporated by reference herein for all purposes.

In still other cases, the user's remote device 62 may be configured to determine that a user is in proximity to the HVAC controller 18 upon sensing a user's interaction with the HVAC controller 18 via the user interface provided at the HVAC controller 18. For example, the sensor 92 may be configured to sense when the screen of the user interface 108 is touched and/or when a button provided at the user interface 108 is pressed by a user. In some cases, the sensor 92 may be a touch sensitive region provided on the user interface 108 when the user interface 108 incorporates a touch screen display. In other cases, the sensor 92 may be associated with a hard button or soft key that is provided separate from a display of the user interface 108.

In some cases, upon detecting or determining that a user is in proximity to the HVAC controller, the sensor 92 may deliver a signal to the processor 64 indicating that the user is in proximity to the HVAC controller 18. In other cases, the upon detecting or determining that a user is in proximity to the HVAC controller 18, the sensor 92 may be configured to transmit a signal to a remote server 66 over a second network 58 via the communications block 60.

The user interface 108, when provided, may be any suitable user interface that permits the HVAC controller 18 to display and/or solicit information, as well as accept one or more user interactions with the HVAC controller 18. For example, the user interface 108 may permit a user to locally enter data such as temperature set points, humidity set points, starting times, ending times, schedule times, diagnostic limits, responses to alerts, and the like. In one example, the user interface 108 may be a physical user interface that is accessible at the HVAC controller 18, and may include a display and/or a distinct keypad. The display may be any suitable display. In some instances, a display may include or may be a liquid crystal display (LCD), and in some cases an e-ink display, fixed segment display, or a dot matrix LCD display. In other cases, the user interface 108 may be a touch screen LCD panel that functions as both display and keypad. The touch screen LCD panel may be adapted to solicit values for a number of operating parameters and/or to receive such values, but this is not required. In still other cases, the user interface 108 may be a dynamic graphical user interface.

In some instances, the user interface 108 need not be physically accessible to a user at the HVAC controller 18. Instead, the user interface 108 may be a virtual user interface 108 that is accessible via the first network 54 and/or second network 58 using a mobile wireless device such as one of those remote devices 62 previously described herein. In some cases, the virtual user interface 108 may be provided by an app executed by a user's remote device for the purposes of remotely interacting with the HVAC controller 18. Through the virtual user interface 108 provided by the app on the user's remote device 62, the user may change temperature set points, humidity set points, starting times, ending times, schedule times, diagnostic limits, respond to alerts, update their user profile, view energy usage data, and/or the like. In some instances, changes made to the HVAC controller 18 via a user interface 108 provided by an app on the user's remote device 62 may be first transmitted to an external web server 66. The external web server 66 may receive and accept the user inputs entered via the virtual user interface 108 provided by the app on the user's remote device 62, and associate the user inputs with a user's account on the external web service. If the user inputs include any changes to the existing control algorithm including any temperature set point changes, humidity set point changes, schedule changes, start and end time changes, window frost protection setting changes, operating mode changes, and/or changes to a user's profile, the external web server 66 may update the control algorithm, as applicable, and transmit at least a portion of the updated control algorithm over the second network 58 to the HVAC controller 18 where it is received via the second port 56 and may be stored in the memory 72 for execution by the processor 64. In some cases, the user may observe the effect of their inputs at the HVAC controller 18. As discussed herein, the communication rate between the processor 64 and the web server 66 may affect the message latency from when the user interacts with the user interface 108 provided by their remote device 62 to effect a change at the HVAC controller 18 and when a message corresponding to the user's interaction with the user interface 108 provided at their remote device 62 is communicated to the HVAC controller 18. In some cases, the user may experience lower message latencies when the HVAC controller 18 has a full amount of available power stored in the energy storage device. The message latency may increase as less power is available to the HVAC controller 18 from the energy storage device 86, but this is not required.

Rather than a dedicated app, the virtual user interface 108 may include one or more web pages that are transmitted over the second network 58 (e.g. WAN or the Internet) by an external web server (e.g. web server 66). The one or more web pages forming the virtual user interface 108 may be hosted by an external web service and associated with a user account having one or more user profiles. The external web server 66 may receive and accept user inputs entered via the virtual user interface and associate the user inputs with a user's account on the external web service. If the user inputs include changes to the existing control algorithm including any temperature set point changes, humidity set point changes, schedule changes, start and end time changes, window frost protection setting changes, operating mode changes, and/or changes to a user's profile, the external web server 66 may update the control algorithm, as applicable, and transmit at least a portion of the updated control algorithm over the second network 58 to the HVAC controller 18 where it is received via the second port 56 and may be stored in the memory 72 for execution by the processor 64. In some cases, the user may observe the effect of their inputs at the HVAC controller 18.

In some cases, a user may use either the user interface 108 provided at the HVAC controller 18 and/or a virtual user interface 108 as described herein. The two types of user interfaces 108 that may be used to interact with the HVAC controller 18 are not mutually exclusive of one another. However, in some cases, a virtual user interface 108 may provide more advanced capabilities to the user.

Figure 4 is a front elevation view of an illustrative HVAC controller 18 that includes a user interface 108. The user interface 108, provided at the HVAC controller 18, may be provided in addition to or in alternative to a virtual user interface that may be provided by an application program executed by a user's remote device 62 or that may be viewed as one or more web pages served up by a web server 66, as discussed herein. As shown in Figure 4, the illustrative user interface 108 may include a display 94 disposed within a housing 96. In some cases, the display 94 may be a touch screen display, but this is not required. In the example shown, the user interface 108 may include one or more touch sensitive regions 98a-98c provided on the display 94, each touch sensitive region defining a button through which the user may interact with the HVAC controller 18. Additionally, or alternatively, the user interface 108 may include one or more buttons 102a and 102b that may be provided separate from the display 94 through which the user may interact with the HVAC controller 18. In some cases, the buttons 102a, 102b may be touch sensitive capacitive buttons. In other cases, the buttons 102a, 102b may be hard, physical buttons or soft keys. It will be generally understood that the size and shape of the display as well as the number and location of the various buttons can vary.

The housing 96 may be fabricated from any suitable material. As shown in

Figure 4, the housing 96 may have a generally circular foot print, but this is not required. In some cases, the housing 96 may be a two-part housing a may include a rotating ring 106 which may form part of the user interface 108, and which may provide another mechanism for accepting input from a user. For example, the user may rotate the ring 106 to increase or decrease an operating parameter (e.g. set point) and/or to change information viewed on the display 94 by advancing from a first screen to a second screen displayed on the display 94. In some cases, while the user interface 108 that is provided at the HVAC controller 18 is capable of receiving a user's interactions, a more advanced or detailed user interface 108 for more fully interacting with the HVAC controller 18 may be provided by an application program executed at a user's remote device 62 and/or by one or more web pages served up by a web server such as web server 66, as described herein.

Referring back to Figure 3, the processor 64 may operate in accordance with an algorithm that controls or at least partially controls one or more HVAC components of an HVAC system such as, for example, HVAC system 4 of Figure 1. The processor 64, for example, may operate in accordance with a control algorithm that provides temperature set point changes, humidity set point changes, schedule changes, start and end time changes, window frost protection setting changes, operating mode changes, and/or the like. At least a portion of the control algorithm may be stored locally in the memory 72 of the HVAC controller 18 and, in some cases, may be received from an external web service over the second network 58. The control algorithm (or portion thereof) stored locally in the memory 72 of the HVAC controller 18 may be periodically updated in accordance with a predetermined schedule (e.g. once every 24 hours, 48 hours, 72 hours, weekly, monthly, etc.), updated in response to any changes to the control algorithm (e.g. set point change) made by a user, and/or updated in response to a user's request. The updates to the control algorithm or portion of the control algorithm stored in the memory 72 may be received from an external web service over the second network. In some cases, the control algorithm may include settings such as set points.

In some cases, the processor 64 may operate according to a first operating mode having a first temperature set point, a second operating mode having a second temperature set point, a third operating mode having a third temperature set point, and/or the like. In some cases, the first operating mode may correspond to an occupied mode, and the second operating mode may correspond to an unoccupied mode. In some cases, the third operating mode may correspond to a holiday or vacation mode wherein the building or structure in which the HVAC system 4 is located may be unoccupied for an extended period of time. In other cases, the third operating mode may correspond to a sleep mode wherein the building occupants are either asleep or inactive for a period of time. These are just some examples. It will be understood that the processor 64 may be capable of operating in additional operating modes as necessary or desired. The number of operating modes and the operating parameter settings associated with each of the operating modes may be established locally through the user interface 108, and/or through an external web service and delivered to the HVAC controller via the second network 58 where they may be stored in the memory 72 for reference by the processor 64.

In some cases, the processor 64 may operate according to one or more predetermined operating parameter settings associated with a user profile for an individual user. The user profile may be stored in the memory 72 of the HVAC controller 18 and/or may be hosted by an external web service and stored on an external web server. The user profile may include one or more user-selected settings for one or more operating modes that may be designated by the user. For example, the processor 64 may operate according to a first operating mode having a first temperature set point associated with a first user profile, a second operating mode having a second temperature set point associated with the first user profile, a third operating mode having a third temperature set point associated with the first user profile, and/or the like. In some cases, the first operating mode may correspond to an occupied mode, the second operating mode may correspond to an unoccupied mode, and the third operating mode may correspond to a vacation or extended away mode wherein the building or structure in which the HVAC system 4 is located may be unoccupied for an extended period of time. In some cases, multiple user profiles may be associated with the HVAC controller 18. In certain cases, where two or more user profiles are associated with the HVAC controller 18, the processor 64 may be programmed to include a set of rules for determining which individual's user profile takes precedence for controlling the HVAC system when both user profiles are active.

In some cases, the processor 64 may be programmed to execute a guided set- up routine that may guide a user through configuring the HVAC controller 18 to control one or more HVAC components 6 of their particular HVAC system 4. In some cases, the user may have limited knowledge about the particular HVAC system configuration. The guided set-up routine may be configured to guide a user through set-up of the HVAC controller 18 without requiring detailed knowledge of the particular HVAC system and/or without requiring the user to consult a technical manual or guide.

Within the following disclosure, non-limiting reference will be made to representative components of an illustrative thermostat illustrated in the exploded view of Figure 5. The major subassemblies are identified generally as follows:

180a display window/mask

180b adhesive

180c capacitive touch element

180d display gasket

180e display

180f window support and IR sensor

180g button light guide assembly/dampener

180h turning ring and code wheel

180i sliding ring

180j printed wiring board (PWB)

180k back ring

1801 light ring

180m case back

180n wall plate assembly/level/battery/PWB-2

180o mud ring

Not all listed components will receive further detailed attention and not all components contemplated are illustrated in Figure 5 which serves to indicate the relative locations of components of one illustrative embodiment. It will be appreciated that certain of the components may be omitted, combined, rearranged, or otherwise modified in other embodiments.

In some embodiments, a rotatable ring may form part of the outer surface of the HVAC controller. In some embodiments, an optical encoder, such as a reflective optical encoder, may be employed to detect rotation of the rotatable ring. In one example, a flange of the rotatable ring (see, 180h of Figure 5) may be captured between a fixed sliding ring (see, 180i of Figure 5) and a loading surface which includes 3 to 8 pressure applying paddles as components of the button light guide assembly (see, 180g of Figure 5). Grease dots may be applied between the fixed sliding ring and the rotatable ring to provide a desired degree of drag while keeping the grease on the opposite side of the assemblies from the optical ring rotation encoder, if present.

One such example is shown in Figure 6. A flange 472 of a rotating ring 470 extends inward and rides against a fixed sliding ring 460, sometimes with grease 450 at the interface. In some embodiments, ridges and corresponding relief portions of the rings 460, 470 provide a labyrinth seal which helps confine the grease 450 to the desired sliding interface between the two rings.

In the example shown, cantilevered dampeners 480a are positioned along the perimeter of button light guide assembly 480 and each dampener 480a applies a light pressure to a raised surface 474 of the flange 472 of the rotating ring 470. Although the deflection of the beams of cantilevered dampeners 480a is often sufficient to provide the desired pressure, it will be appreciated that in some cases, pressure may be supplied by, or supplemented by, wire springs, wound springs, sheet metal springs, a wave washer, and the like (not shown). In some embodiments, a total of six cantilevered dampeners 480a may be formed around the perimeter of the button light guide assembly 480 (see, 180g of Figure 5). In some instances, the button light guide assembly 480 is conveniently mounted to trap the rotating ring 470 (omitted for clarity) between button light guide assembly 480 and fixed sliding ring 460.

To sense the degree and direction of rotation of the rotating ring (see, 180h of

Figure 5), a surface of the rotating ring may be patterned, for example by metalizing, to provide a reflective code ring to be sensed by an optical encoder capable of sensing rotational increments as pulses or the like and further capable of sensing direction of rotation. In an alternate embodiment, the rotating ring may include a plurality of teeth distributed around an inner or outer perimeter thereof as in the form of a planetary, bevel, or ring gear adapted to mate with a complementary gear to drive an encoder which provides signals related to incremental rotation and direction. See Figure 7 for a non-limiting example of a planetary gear 500 driving a spur gear 510, the shaft 520 of which may be coupled to an encoder (not shown for clarity). Figure 8 is illustrative of a rotating ring adapted for use with the gear and encoder

arrangement. Other encoding methods may be used. In some cases, the metalized pattern may not form a continuous conductive ring around the rotating ring to help minimize interference with radio frequency communication between the thermostat and other components of the building automation system. Such a construction may help RF communications between an external device and an internal antenna of the thermostat.

Figure 9 illustrates an illustrative code wheel 180h with a reflective code 522 mounted on an inward extending flange 524 of the code wheel 180h. Figure 10 shows the illustrative code wheel 180h installed in an HVAC controller, such as the HVAC controller shown in Figures 4-5. In some embodiments, the code wheel 180h is a rotatable ring, and is disposed between a first stationary housing component and a second stationary housing component. For example, the first stationary housing component may include the button light guide assembly/dampener 180g (Figure 5) and the second stationary housing component may include the sliding ring 180i (Figure 5). It will be appreciated that either the first stationary housing component and/or the second stationary housing component may include one or more additional components in combination with the aforementioned button light guide

assembly/dampener 180g and the sliding ring 180L The code wheel 180h has an outer exposed surface that a user can use to rotate the code wheel 180h.

In some embodiments, the rotatable ring or code wheel 180h has a first side 502 and an opposing second side 504. In the example shown in Figure 10, the first side 502 of the code wheel 180h is configured to slide along a surface of the first stationary housing component and the second side 504 of the code wheel 180h is configured to slide along a surface of the second stationary housing component when the code wheel 180h is rotated. The first side 502 of the code wheel 180h includes an inward extending flange 524 that extends towards a rotation axis of the code wheel 180h and may be considered as having an encoded surface including a reflective code 522. In some embodiments, the reflective code 522 may be considered as facing towards a front of the thermostat, or away from a back of the thermostat.

The inward extending flange 524 may define an upward facing (in the illustrated orientation of Figure 10) surface that the reflective code 522 may be mounted on. It is contemplated that the reflective code 522 may be deposited, printed, adhered, etched or otherwise secured or formed on the upward facing surface of the inward extending flange 524. In some embodiments, the reflective code 522 may include a reflective repeating pattern that optionally varies with respect to rotational position on the encoded surface. An encoder 526 is shown disposed over the inward extending flange 524 of the code wheel 180h. In some embodiments, the encoder 526 may be considered as facing towards the back of the thermostat, or away from the front of the thermostat. In some embodiments, the encoder 526 is an optical encoder. The encoder 526 is shown mounted above the upward facing surface of the inward extending flange 524 of the code wheel 180h. The encoder 526 may detect the reflective code 522 as the code wheel 180h is rotated by the user, and may output a signal that is indicative of rotation of the code wheel 180h that may be used as an input to the thermostat, such as to adjust a temperature setpoint or the like. In some embodiments, the output signal of the stationary encoder 526 indicates how far and in which direction the rotatable ring 180h was rotated by the user. It will be appreciated that in some instances, a user may rotate the rotatable ring 180h in order to instruct the thermostat to change a temperature setpoint. The user may rotate the rotatable ring 180h in a first direction in order to increase a temperature setpoint, for example, and may rotate the rotatable ring 180h in a second, opposite direction, in order to decrease a temperature setpoint.

In other embodiments, the encoding element providing the function associated with the rotating ring or code wheel 180h may be a capacitive or other touch-sensitive element. See Figure 11 in which the movement of a user's finger 525 near or along an element of the perimeter of the thermostat is sensed to determine direction and degree of motion and encoded to acquire the input information. In such

embodiments, a capacitive or other touch-sensitive element 527 with which the user interacts may, or may not, be configured to physically move while being manipulated. For example, in some instances, a capacitive or other touch sensitive element 527 may be configured to remain stationary to simplify the mechanical design of the thermostat, and to possibly improve reliability of the user interface of the thermostat. When so provided, a capacitive change may be caused by an interaction (e.g. touch or near touch) between the capacitive or other touch sensitive element 527 and a user's finger 525. This capacitive change may be correlated to a direction and degree of motion of the user's finger 525 along the capacitive or other touch-sensitive element 527, and thus correlated to a desired input of the user. In one non-limiting example, the relative and/or absolute position of the user's finger 525 may be detected by heterodyning the frequency of a fixed frequency oscillator with a variable frequency oscillator whose frequency is altered by changes in capacitance caused by changes in position of the user's finger along the capacitive or other touch-sensitive element 527.

In some instances, a turning ring or the like may be provided, and may present a desired mechanical feel such as a damped turning ring feel as discussed above with reference to Figs. 9. In some cases, such a rotating ring may be positioned adjacent to a capacitive or other touch-sensitive element 527. In some instances, the rotating ring may include one or more conductive elements that function similar to the user's finger 525 discussed above. That is, the one or more conductive elements of the rotating ring may be sensed (e.g. capacitively) by the capacitive or other touch- sensitive element 527.

In some instances, a rotating ring may include one or more magnets, and one or more stationary magnetic sensors may be used to detect the relative and/or absolute position of the rotating ring. In yet another example, the encoding function associated with a rotating ring or code wheel 180h may be provided by a rotational

potentiometer or rotational capacitor, if desired.

In some instances, a rotating ring may be provided with markings along an inward extending flange 524. The markings may be part of a regular pattern, or may be random or pseudo-random. The optical encoder 526 may periodically capture an image of the markings. The optical encoder may then compare a previous image of the markings with a more recent image of the markings, and may determine movement (i.e. direction and displacement) of specific markings, and thus movement of the rotating ring. Such an optical encoder may be the same or similar to that used in many optical mice.

In some instances, a thermostat may employ an illuminated light ring element (see, 1801 of Figure 5), which in some cases can be used to indicates a current operating condition of the device, for example: heating equipment on, cooling equipment on, or neither heating or cooling equipment on. Each operating condition may be indicated by the display of a different color, which may be augmented by other audio and/or visual cues, if desired. In one example, colored lighting presented on the device front panel and from the device back side may be coordinated to indicate the current operating condition. For example, matching front and back side illumination may be orange to indicate that the heating equipment is currently activated, blue illumination may indicate cooling equipment is currently activated, and the absence of illumination may indicate neither the heating equipment or cooling equipment is activated. These visual indications may be further supplemented and reinforced by the display of, for example, a distinctive colored icon such as an (orange) sun when heating and a (blue) snowflake when cooling, and/or by projecting an appropriate color light from the illuminated ring out along the back side of the thermostat onto an adjacent wall or mud ring.

In certain embodiments, the color-keyed display features may persist if external power is available, and optionally may fade to a lower brightness level after a pre-determined duration. When external power is not available, the display brightness and duration may be diminished or even eliminated quickly. In such low power consumption circumstances, illumination may be confined to one of the window feature(s) and the illuminated ring element near the thermostat base.

In an illustrative embodiment, orange is used to indicate heating operation, and may be represented by an orange temperature set point, an orange sun icon, and an orange light ring or halo around the device's base. Blue is used to indicate cooling operation and may be represented by a blue temperature set point, a blue snowflake, and a blue light ring around the device's base. When neither heating nor cooling is on, the word Off may be displayed on the front display.

A user can press anywhere in the area designated for the color temperature set point and color icon to select among the three operating modes. Once pressed, the temperature set point disappears and is replaced by the icons for the three selectable modes - a sun for heating mode, a snowflake for cooling mode and Off for an off mode. There may be an audio cue along with visual indication(s) to indicate to the user that the thermostat is now in a mode selection state. The currently selected mode will be displayed in color while the two non-selected modes may be grayed out. The user can select a new mode, or return to the current mode, by pressing one of these three options. The currently selected option may then be display in its designated color. At the center of the display, the actual temperature may disappear and may be replaced by visual and/or written cues that provide further an explanation of the currently selected mode.

By pressing the mode a second time, the user confirms that they want the device to switch to that mode. This mode choice can be confirmed after a short period of touch-press inactivity. There may be audio cues associated to the initial selection and confirming button press actions. When the mode is confirmed, the two grayed out mode options may disappear. For heating and cooling operation, the associated temperature set point may appear in its designated color, alongside the matching colored icon for the selected mode. The device's light ring may also change to that color for a short period of time. This reaffirms to the user that the mode has been locked into this particular operation. If the heating or cooling equipment turns on, the colored icon for that mode may animate in a way that indicates to the user that the heat or cooling equipment is on. For example, the temperature and/or the appropriate heat/cool icon may appear to shimmer. Also, the device's light ring may illuminate with the corresponding color. For the Off mode, the user does not have a temperature set point being controlled to, and thus it does not appear. The word Off remains while the grayed out snowflake and sun disappear. The device's light ring may not illuminate in the Off Mode.

The light ring may be implemented as a circular light guide. In some cases, the light ring may direct light along a defined strip that extends around at least a majority of the perimeter of the device housing. In some cases, the defined strip is on the front face of the device that is facing away from the all. In other cases, the defined strip may extend along the side wall of the device, wherein the side wall extends from the front face back toward the wall. In yet other cases, the defined strip may be on the back face of the device and may project light toward the wall to light up the wall, sometimes forming a light halo around the device.

Light extraction from the light guide may be tailored to provide a uniform glow around the perimeter without significant bright or dark spots or, if desired, may be patterned. In some cases, light sources that illuminate the light guide may be LEDS, including three color devices to allow custom color mixing under program control. Although a default color scheme has been described above, it will be appreciated that other color schemes may be employed and, in some embodiments, may be user specified.

An illustrative light guide 600 is illustrated in Figure 12, corresponding to element 1801 of Figure 5. In some embodiments, as illustrated, the light guide 600 has an annular shape that partially fits within the housing of the thermostat and partially extends outside of the housing of the thermostat. With particular reference to Figure 5, it can be seen that the light guide 600 has an annular shape that fits within the back ring 180k. In some embodiments, a bulk of the light guide body 606 (discussed below) fits within the back ring 180k while the output section of the light guide 600 extends to a radial position about equal to an outer surface of the back ring 180k.

The illustrative light guide includes two shaped light input pockets 601 adapted to capture light from a light source (not illustrated in Figure 12) which allows the light guide to project light of desired colors onto a wall or mud ring to which the thermostat is mounted. In some embodiments, the light input pockets 601 may include a compound curved surface 601a (Figure 13), as illustrated, that faces the light source. In some embodiments, at least a portion of the light source may be positioned within the light input pockets 601.

The light guide 600 includes long bifurcated sections 603 that are adjacent to the shaped light input pockets 601. The bifurcated sections 603 accept light from the shaped light input pockets 601 and distribute the light into a light guide body 606 that extends around the light guide 600. Figures 13 and 14 provide additional views of the bifurcated sections 603. In addition to the distribution function, the long inlet section 603 may help improve color mixing. In some embodiments, a portion of the light guide may be coated with a reflective material 604 to improve retention of light in the transition region between the long inlet section 603 and the light guide body 606.

Region 605 of the light guide 600 may help reduce what would otherwise be an unduly bright spot adjacent to that portion of the light guide 600 and redirects excess illumination into the ring portion of the light guide 600. In some

embodiments, the surrounding components of the thermostat, such as a light reflective ring, also may contribute to uniform distribution of light within the light guide.

In some embodiments, as illustrated, the bifurcated section 603 includes a first leg 603a curving in a first direction and a second leg 603b curving in a second, opposing, direction. In some embodiments, the light guide body 606 includes a first light guide body portion 606a that is optically coupled to the first leg 603 a and a second light guide body portion 606b that is optically coupled to the second leg 603b. In some embodiments, as illustrated, the light guide body 606 has a contoured profile to aid in uniform light distribution. With illustrative reference to the first light guide body portion 606a, it may be seen that the first light guide body portion 606a may have a maximum height or volume proximate the bifurcated section 603 and a minimum height or volume at a point 606c that is spaced away from the bifurcated section 603. In some cases, as illustrated, the minimum height or volume at point 606c occurs at a position that is midway between two equally spaced bifurcated sections 603.

The output section of the light guide is illustrated in greater detail in Figure

15, which illustrates an output turn 607 adapted to direct light toward the output surface 608. The output surface 608 may be a textured surface to enhance uniform light leakage to illuminate, for example, the wall or mud ring (not shown) behind the thermostat. In some embodiments, the light guide 600 may be secured to the thermostat housing such that the output surface 608 may face the wall or other vertical surface to which the thermostat is securable. In an alternate embodiment, the light guide may be adapted to produce a modulated illumination such that several brighter illuminated regions may be produced, for example gradually reaching greatest brightness at 3, 6, 9, and 12 o'clock positions and diminishing in between for decorative effect or may be modulated to produce a generally uniform background illumination with bright spots distributed around the illuminated region. These are just some example variations.

Figure 16 illustrates the light guide 600 in combination with the printed wiring board 180j (Figure 5). In the example shown, the printed wiring board 180j includes a pair of light sources 602. As illustrated, each of the pair of light sources 602 are equidistantly spaced apart from one another, about 180 degrees apart, and are positioned on the printed wiring board 180j such that each of the light sources 602 are positioned adjacent a corresponding input pocket 601 and bifurcated section 603. Accordingly, light emanating from each of the light sources 602 may enter an input pocket 601 and bifurcated section 603, and thus pass into the light guide body 606. The light sources 602 may be any desired light source. In some embodiments, each of the light sources 602 includes one or more light emitting diodes (LED). In some cases, each of the light sources 602 may be a multicolor selectable LED.

Figure 17 illustrates a lighting method that may be carried out using an HVAC controller that controls one or more HVAC components. A first operating state of the HVAC controller may be identified, as generally indicated at block 632. In some cases, the HVAC controller may have two or more distinct operating states. At block 634, a first color that is assigned to the first operating state may be identified. In some embodiments, each of the two or more distinct operating states may have different assigned colors. The first color may be projected rearward and onto a surface upon which the HVAC controller is mountable, as generally indicated at block 636. In some cases, the first color is shielded from being projected forward and away from the surface. In some embodiments, projecting the first color includes projecting an annular light ring on the surface upon which the HVAC controller is mountable. In some cases, the annular light ring is substantially circumferentially uniform in intensity (e.g. halo).

In some embodiments, and as optionally indicated at block 638, a second operating state of the HVAC controller, different from the first operating state, may be identified. A second color, different from the first color, assigned to the second operating state may be identified as optionally indicated at block 642. As optionally indicated at block 644, the second color may be projected rearward and onto the surface upon which the HVAC controller is mountable while shielding the second color from being projected forward and away from the surface.

In some embodiments, the first operating state corresponds to the HVAC controller causing an HVAC heating component(s) to be energized. The second operating state may correspond to the HVAC controller causing an HVAC cooling component(s) to be energized. In some embodiments, a third operating state corresponds to the HVAC controller not causing either the HVAC heating component or the HVAC cooling component to be energized (off state). In some cases, when the HVAC controller is in the third operating state, no color is projected rearward and onto the surface upon which the HVAC controller is mountable.

In some instances, the thermostat may provide services beyond utilitarian control of an HVAC system. For example, and in some cases, the user can view today's weather forecast through one button press on the device. When the thermostat is approached as determined by, for example, an IR sensor, motion sensor, contact with a touch sensitive region of the window, or rotation of the turning ring, the device may highlight interaction points for the user using visual and/or audio cues, so that the user is intuitively guided through the experience. One of these highlighted interaction points may be an icon that represents weather. By pressing this point (e.g. a weather button such as weather button 102b), the display of an actual temperature, temperature set point, and system mode may be replaced by today's current weather conditions, weather anticipated in 6 hours, and weather anticipated in 12 hours. Each of these time points may provide an icon on the main display that is associated with current conditions or with anticipated future conditions in the area. There may also be a current and/or expected temperature and humidity numeric value. When available from the weather source or readily calculable, the display may include a comfort index. The single button press may provide a comprehensive outlook of the short term expected weather so users can plan their day quickly, and in some cases, optionally choose to activate a one-touch activity. By pressing the weather button 102b a second time, the weather information may disappear, restoring the home screen (e.g. actual temperature, temperature set point and currently selected system mode icon). If the user does not press the weather button 102b a second time, the device may automatically return to the home screen after a period of time.

While in the weather display mode, the device may allow the user to scroll through today's weather, historic weather, anticipated weather, and/or severe weather alert notifications using, for example the rotatable dial or gestures on the touch screen, to activate a scroll through the options depending upon availability of that information from a networked source. In some embodiments, the thermostat may have access to an exterior air sensor and may be capable of displaying parameters of the exterior air such as temperature and/or humidity.

The thermostat may convey details related to how the user's HVAC system has typically operated when similar outside weather (be it today's, historic, or future) is presented. For example, on a day where high temperatures are expected to top 100 °F, the device may display that typically the air conditioner runs 12 hours to maintain 'x' degree temperature inside where 'x' may be the currently programmed set point. Along with this display of typical operation parameters, there may be an indication, based on the current utility rates, of what the expected cost associated with the indicated setting for this outside condition may be. In some cases, there may be an indication, based on the current utility rates, of how much the user may save in cooling costs if the user were to increase the set point by, for example, 3 degrees. This may provide additional information to the user upon which to base adjustments to temperature, in addition to maintaining basic indoor comfort. In some cases, the user may specify a daily cost budget for cooling the building, and the device may set the set point temperature so that the expected cooling costs for that day stay under that budget.

In some embodiments, the programmable thermostat may include a selection button which, when pressed, activates a first program module adapted to send a query to a source of local weather information; a second program module adapted to receive weather information related to one of local weather conditions and anticipated local weather; a third program module adapted to convert received weather information to one or more of displayable representations of alphanumeric data and icons; and a display driver for displaying the displayable representations of one or more of alphanumeric data and icons on a display associated with the programmable thermostat. In related embodiments, the programmable thermostat may generate a query under program control for weather information which may be sent to a source of local weather information. Upon receiving a response to the query or in response to receipt of weather information generated by a source of local weather information without an initiating query, the second module may be adapted to convert the received weather information to a displayable form and to initiate display of weather information at the thermostat. In certain embodiments, the programmable thermostat may be adapted to play a sound associated with received weather information.

The overall organization of an illustrative HVAC system is shown in Figure

18. At a first level, the HVAC system may include a thermostat 18 and a user console 652. The user console 652 may be remote and only intermittently available through network 650. The network 650 may provide additional resources 658. As discussed previously, the network 650 commonly will include a WiFi network as an initial link; however other components may be employed, for example, the Internet, cellular communication, REDLINK™, ZigBee, Bluetooth, IrDA, dedicated short range communication (DSRC), EnOcean, and their functional equivalent. In certain embodiments, portions of the network, including the initial link, may be hard wired components, fiber optics, and the like and connections to additional resources 658 often may be through hard wired components, fiber optics, and the like.

Within the thermostat 18, modules adapted to manage settings 620, weather related data and activities 630, and Smart Away functions 640 associated with the window displays and controls may be present. The settings module 620 may include a hardware block 622, which may be used to store and manage hardware settings for the thermostat and/or HVAC components. Blocks 624 and 626 store and manage home settings and away settings, while block 628 provides control of advanced features.

Features associated with the weather module 630 may be accessed by touching one of the stencil areas adjacent to the main display, which may present a weather related icon such as a sun partially obscured by a cloud. In some embodiments, the weather related icon may be illuminated by, for example, different colored lighting to indicate whether the features are enabled and being viewed or enabled, but not being viewed. When the weather related icon is not illuminated, the weather related features are not enabled.

In some cases, user configurable one-touch actions may be provided. Such one-touch actions may be setup or activated at the thermostat itself, via a network such as by a cellular phone network, the Internet, a local WiFi network, and/or the like or combinations thereof. In some cases, access to a list of available one-touch actions may be provided by pressing a button or stencil on the window of the thermostat. In certain embodiments, the button or stencil may be double-touched to access one-touch actions and single-touched to access other functions such as Smart Away. In other embodiments, the one-touch actions may be accessed by maintaining contact with the button or stencil for a predetermined length of time (e.g. holding the button in for 5 seconds). When a one-touch menu is accessed at the thermostat, the upper display area of the thermostat may include two touch-activated regions for navigating the list of available one-touch commands and a touch-activated region for activating the selected command. The upper display area may include appropriate icons, for example up and down arrows and an ">" character, and activation(s) may be accompanied by appropriate audio and/or visual cues.

One-touch actions may be particularly for those people who do not live life by a set schedule and have a need for a HVAC system that easily accommodates modification of routine operation of the HVAC system by introducing pre- programmed or readily programmed macros that allow rapid and unique personal customization on a one-time or recurring basis. In some cases, the interface may allow one-touch activation of previously configured macros that may be provided for primarily time-based and/or non-time-based events as well as for non-time-based activities with a known time component.

Time-based events may include those events with at least one of a designated start time, a designated end time, and a duration designation in conjunction with a function, such as heat, cool, fan-on, and the like. In some events, the function may be inferred by the indicated direction of temperature change. Actions to be initiated by such events may be specified in a variety of ways. As a non-limiting example, an event may lower the current set point of the thermostat by 7 degrees for a period of 20 minutes starting at the current time. As another non-limiting example, the event may raise the set point 5 degrees for two hours starting at 3 :40 PM on Tuesdays,

Thursdays, and Fridays until further notice. The latter instance may, for example, be useful to better accommodate a student who is engaging in after school activities for a semester.

Non-limiting examples of non-time-based actions or activities include interests, weather, lifestyle, level of activity, home efficiency, number of occupants, detected presence of specific individual(s), and the like. Associated displays may include a clock, HVAC activity, outdoor conditions, alerts, and communications. In certain embodiments, the actions or activities may include conditional logic, for example, increase the set point by 5 degrees at 4:30 AM Monday-Friday IF the outdoor temperature is less than 20 °F AND the home is unoccupied. Some actions may simply increase or decrease the current set point by a few degrees until the next regularly scheduled temperature change to increase comfort if the user feels chilly or warm at the moment.

One-touch actions may be viewed as personalized modifications, or macros, added to a background program which typically has been fixed by programming temperatures to be maintained between fixed times within a daily profile. One-touch actions may introduce convenient variations or over-rides to a daily schedule which persist for a fixed time interval or until the next pre-programmed daily schedule action. For example, if a user occasionally decides in the morning to exercise in the home gym after work, a one-touch button activated in the morning may direct the system to lower the set point by 5 °F at 5:00 PM to accommodate the increased activity level. If, on the other hand, the user decides to go shopping before going home, the onset of a previously programmed temperature change may be delayed by 1.5 hours to save energy by activating a one-touch action.

In some embodiments, one-touch actions may provide incremental changes in the current set point while in other embodiments one-touch actions may initiate a change in a set point to a specified value. For users who frequently travel, a one- touch action may toggle the daily program from one group of temperature settings for time intervals to a corresponding group of "away from home" settings. The one- touch actions may specify qualifiers such as days of the week and absolute or relative times. One-touch actions may be conditionally based upon external or internal data. The thermostat may query a local weather service and, for example, raise the set point by five degrees for fifteen minutes when users are expected to arrive if the external temperature is below zero degrees to compensate for the introduction of cold air into parts of the house remote from the thermostat and to greet the user with a warm home if desired. The thermostat may also be responsive to the presence of users in the room or home at times when the house is expected to be unoccupied. This information may come from a variety of sources. For example, an IR sensor in the thermostat may determine that people are moving in the room, or may be aware of motion sensors associated with an alarm system for the house through a wired or wireless connection. In addition, the thermostat may be aware of the presence or even the approach to the home of one or more users through signals from cell phones or tablet computers which have an enabled location service such that the one-touch action may alter the current set point to prepare the house for occupancy.

A simplified programming environment may be used to pre-program aspects of the operation of a thermostat and to implement pre-programed aspects of the operation of a thermostat. Within an application running on, for example a cell phone, tablet computer, or personal computer, a user may create one-touch actions that are relevant to them and create a unique set of home comfort conditions that are ideal for them. Once programmed, the one-touch actions may be transmitted to a WiFi enabled thermostat via a network such as by a cellular phone network, the Internet, a local WiFi network, and/or the like or combinations thereof for storage at the thermostat. The one-touch actions may be invoked (over-ride the currently programmed schedule) remotely and/or at the thermostat. In some embodiments, as the thermostat "learns" which one-touch actions are more frequently used, the thermostat may order the list of available one-touch actions or macros to present the available actions in frequency-of-use order. In other embodiments, the list of available one-touch actions may be presented or ordered by other criteria such as by who created the action or may be presented or ordered according to their date of creation. In still other embodiments, the one-touch commands may be ordered chronologically according to the order in which certain events are expected to occur such as, for example: wake, leave, home, sleep. Other less frequently used one-touch actions such as one-touch actions related to comfort settings for a party or economy settings for a vacation may appear towards the end of the list of one-touch actions that are displayed. Other groupings and/or ordering by a user configurable drag-and-drop list may be employed.

At the thermostat, consumers can choose to display available one-touch actions such that they are actionable and available to the consumer by pressing a window button. When engaged, these actions may drive conditions within the house to pre-configured settings with one consumer touch or may alter or over-ride the underlying basic schedule such that the change is implemented at some future time. These actions may be customized and chosen by the consumer so that they have controls and functionality which are time or non-time based and which are relevant to them. While "one-touch" is used as a descriptor to indicate ease of use, it is contemplated that more than one touch may be required to activate the action, depending on the implementation.

In one example one-touch action, the user or users may configure a one-touch action for when people will or won't be at home to maximize comfort when home and maximize savings when away. A user may, if desired, configure a group of one-touch actions to conserve energy when they decide to leave the house for an extended period of time such as a 3, 4, 5, or 6 hour temperature set back, for example to dine and attend a movie or concert. In other embodiments, the away from home options may be a partially or completely pre-programmed system option. The user may also configure lifestyle or level of activity actions, such as exercise room work out time. When turning this action on, for example, the home may be cooled, or allowed to cool, more than normal by lowering the set point and the fan may be set to circulate more, since people typically feel hotter when using an exercise room. Such actions may be implemented to start immediately or at a specified time. In some cases, such one touch actions can be implemented for only a selected zone or selected zones of a zoned HVAC system.

In addition, at the thermostat, consumers can choose to have simple information displayed to them which are unique and/or relevant to them, such as weather, clock, or HVAC activity. These one-touch actions and information displays may be configured and displayed alongside or instead of other one-touch actions such that operation remains intuitive.

The option to configure one-touch actions using a cell phone, tablet, or personal computer application allows the user experience to be richer and more intuitive in view of the greater display and input options. The larger application display area may, for example, display categories of actions and fully displayed lists of options for selection rather than requiring stepping through menus. Similarly, some inputs may be more conveniently entered directly from a keyboard or a pulldown list rather than up or down stepping. For example, a scrolling list may be somewhat limited as to the reasonable number of time increments whereas a user may enter a time such as 4:23 directly from a keyboard, if desired, rather than being limited to, for example, 10 minute increments in a list.

The one touch actions may be considered user defined macros. In some cases, each of the macros may include a user selected trigger, and a corresponding user selected action. Figure 19 provides a block diagram of a building automation system 770 while Figure 20 provides a block diagram of a remote user device 772 that can be used in conjunction with the building automation system 770.

In some embodiments, the building automation system 770 includes a memory 774 for storing one or more user defined macros and a controller 776 that is operably coupled to the memory 774. For each of the user defined macros, the controller 776 may be configured to determine when a user selected trigger occurs, and in response, outputs one or more control signals to achieve the corresponding user selected action. In some embodiments, at least one of the user defined macros has a name that is user defined, and wherein the user defined name is displayed on a display. The display may be part of the building automation system 770 and/or the remote user device 772, among others.

In some embodiments, for a particular user defined macro, the user selected trigger may be selected from a plurality of predefined triggers. Illustrative but non- limiting examples of suitable triggers include activation by a user, activation at a specified time, activation when no one is home, and activation when someone is home. In some embodiments, for a particular user defined macro, the user selected action may be selected from a plurality of predefined actions. In some cases, the plurality of predefined actions may be programmed into the building automation system 770, for example. Illustrative but non-limiting examples of predefined actions include lowering the temperature by a specified amount, raising the temperature by a specified amount, lowering the temperature by a specified amount for a specified length of time, raising the temperature by a specified amount for a specified length of time, changing the temperature to a specified value, changing the temperature in one or more specified zones, lowering the humidity by a specified amount, raising the humidity by a specified amount, lowering the humidity by a specified amount for a specified length of time, raising the humidity by a specified amount for a specified length of time, activating a fan to circulate air, deactivating a fan to not circulate air, activating a heat exchanger, deactivating a heat exchanger, activate a security system, deactivate a security system, turn on lights, turn off lights, open a garage door, close a garage door, turn on a pool pump, turn off a pool pump, turn on an appliance, and turn off an appliance.

In some embodiments, the building automation system 770 may include a communications port 778 that is operably coupled to the controller 776 and that is configured to receive input from a user. In some cases, the input from a user includes but is not limited to a user selected trigger and a corresponding user selected action for at least some of the one or more user defined macros. In some cases, the communications port 778 is configured to receive input from a user's remote device such as a smart phone, a tablet computer, a laptop computer and a personal computer. In some embodiments, a user's remote device may include the remote user device 772 (Figure 20).

In some embodiments, the communications port 778 is configured to output one or more control signals for controlling building automation equipment (not illustrated). In some embodiments, the memory 774, the controller 776 and the communications port 778 may be part of a server, but this is not required. In some cases, the communications port 778 may be configured to output the one or more control signals to a building controller such as a building controller 780. In response, the building controller 780 may provide one or more control signals for controlling building automation equipment. Illustrative but non-limiting examples of building automation equipment include HVAC equipment, security equipment, lighting equipment and the like.

The remote user device 772 (Figure 20) may, as noted above, represent a variety of different devices, including but not limited to a smart phone, a tablet computer, a laptop computer, and a personal computer. The remote user device 772 may include a user interface 782 and a memory 784 for storing one or more user defined macros, each of which include a user selected trigger and a user selected action. A controller 786 is operably coupled to the memory 784, the user interface

782 and a communications port 788. In some cases, the communications port 788 is a wireless communications port, but this is not required.

In some embodiments, the controller 786 may be configured to accept, via the user interface 782, a definition for a new user defined macro. The controller 786 displays a plurality of triggers via the user interface 782 and accepts a selection of a user selected trigger for the new user defined macro. The controller 786 then displays a plurality of actions via the user interface 782, and accepts a selection of a user selected action for the new user defined macro. The new user defined macro is stored in the memory 784 and is transmitted to a remote location, optionally a remote server, via the communications port 788.

Figure 21 is a flow diagram of an illustrative method that may be carried out using the building automation system 770 (Figure 19) and/or the remote user device 772 (Figure 20). As generally shown at block 790, a plurality of one touch icons may be displayed on a display, each of the plurality of one touch icons corresponding to one of a plurality of user defined macros that each includes a user assigned action. One of the plurality of one touch icons may be selected by a user, as indicated at block 792. The user defined macro that corresponds to the selected one of the plurality of one touch icons may then be executed, including causing control signals to be sent to the building control system to implement the user selected action as generally indicated at block 794. In some cases, the displaying step of block 790 and/or the accepting step of block 792 may be performed on a remote user device such as the remote user device 772 (Figure 20), which as noted may be a smart phone, a tablet computer, a laptop computer or a personal computer. In some embodiments, and as indicated at optional block 796, a user may be allowed to customize the name of at least one of the one touch icons, and to display the customized name on the display when displaying the plurality of one touch icons on a display. In some cases, and as indicated at optional block 798, a user may be allowed to define one or more new one touch icons and corresponding user defined macro, and to display the one or more new one touch icons on the display for selection by the user.

Figures 22-28 provide illustrative but non-limiting examples of screens from an illustrative remote user device. It will be appreciated that these screens provide additional examples of user defined triggers and corresponding user defined actions. In Figure 22, an initial screen 700 may present the user with options for triggering the one-touch action which may include a "You Tap on a setting", "It is a specified time", "Your house is empty", "Someone is at home", and the like at 700a. If the user selects "You Tap on a setting", the programming application may present common options such as "Use at home settings", "Make it 5 degrees cooler", "Make it 5 degrees warmer", "Use economy settings", "Use Away settings", "Circulate the air", and the like at 710 (see Figure 23). Within those common options, in addition to the option to accept a presented default, the application may present additional opportunities for customization as seen at 710a, 710b. For example, following selection of one of the "Make it 5 degrees cooler" and "Make it 5 degrees warmer" options, the application may provide a button which presents an additional menu with the option to provide finer control of the temperature offset and conditions for applying the offset. In some embodiments, the application may present options for the offset in 1 degree increments from 1 degree to 10 degrees, or other convenient range, and allow the user to specify whether the action applies when heating or cooling. In other embodiments, the application may present the offset as a display of the temperature to be maintained. Alternatively, the application program code may display an adjusted temperature setpoint adjacent a temperature offset. The adjusted temperature setpoint is reflective of the temperature setpoint that results after the temperature setpoint is applied. In certain embodiments, those buttons which admit of further options in addition to a default value may include a sub-icon such as an arrow which if selected provides further options. In such embodiments, selection of the button which admits of further options may require confirmation of the selection in the form of, for example, a double-tap or selection of a "Next" button within the display.

When the "use eco mode" is selected via screen 710, the screen 720 may be displayed. As can be seen, the application may set upper and lower limits on a departure from the set-point temperature in screen 720. Once the desired conditions for the new one-touch action have been selected, the user may be presented with the option to name the new setting 730 and to add it to the list of available one-touch actions 740 and the information may be shared with other devices which may initiate one-touch actions within the system such that the newly created action is available from all devices associated with the thermostat.

When the triggering event "It is a specified time" on screen 700a (Figure 22), the application may specify the triggering time(s) and day(s) of the week for the action and pass control to the previously described temperature modification options and following selection of those options to the naming and distribution functions described above.

The one-touch actions may also be programmed to be responsive to the presence 750 or absence 760 of occupants within the house and/or, in some embodiments, within a user specified distance from the house. See Figure 26. As can be seen in Figure 26, in some instances, the location of the house may be defined by its full address. In some cases, this may be a street address. In other cases, the full address may be a GPS position and/or a position identified via a cellular network. In some instances, the full address may refer to longitude and latitude values. These are just some examples.

As discussed herein, the thermostat may employ an IR sensor and associated optical element 210 within the thermostat to determine that people are moving in the room, or may be aware of motion sensors associated with an alarm system for the house through a wireless connection. The system may determine that all occupants are absent by the failure to sense an occupant for a specified length of time. In addition, the thermostat may be aware of the presence or even the approach to the home of one or more users through signals from a cell phone or tablet computer which has an enabled location service. Such user related location services may be generalized such that the departure of all registered users or the departures of each member of a subgroup of registered users may trigger the specified settings. Similarly, the approach or presence of any registered user or of one or more specific individual registered users may trigger the specified settings. An example of programming one touch actions for a zoned system (e.g. upstairs and downstairs) is shown in Figures 27-28.

In addition to the expressly described programming functions, the

application(s) will be understood to include the ordinary editing, cancelation, deleting, etc. actions of a user interface as well as screens for presenting, selecting, and activating one-touch actions. The application may include the capability of providing comments or other information for display when a one-touch application is active. In some embodiments, such additional information may be in the form of a user supplied graphic and/or may be accompanied by an audio cue.

Once configured, whether at the device or at a remote application location, one-touch actions may be activated at the device or at remote application location(s). In addition, simple information may be displayed on the device and optionally may be accompanied by audio cues.

In some instances, the thermostat may transfer operational data to an application or applications which reside on one or more of a cell phone, personal computer, and remote server for analysis and compilation of reports for the user. As discussed herein, the data transfers involved may be accomplished via wireless communication links, wired connections, or combinations of wireless communication links and wired connections using one or more of the commonly employed communication protocols. In some embodiments, the information may be accumulated and transferred to one or more of a cell phone, personal computer, or remote server from another component of the HVAC system such as an equipment interface module. Such transfers may be initiated by either the information collecting equipment (the thermostat or equipment interface module) or by a receiving application running on the one or more of a cell phone, personal computer, and remote server. The transfer of information may occur on a regular schedule, upon the occurrence of a triggering event within the system, or may be initiated by the user. Illustrative sources driving the transfer of information and/or the delivery of a message may include, but are not limited to: user behavior; historical behavior, neighborhood/local trends in behavior (e.g. local trends in energy usage); local weather and impending weather events; energy consumption; HVAC controller status (e.g. loss of network connection, low battery, etc.); HVAC system status; smartphone location; and/or events occurring at the HVAC controller. In some instances, one of the information collecting equipment, the one or more of a cell phone, personal computer, or remote server may not be on-line or otherwise available to participate in an exchange of data, alerts, or reports at the time that such exchanges would normally occur. In such instances, the system components may periodically attempt to establish communication and/or may deposit a message for later retrieval, such as an e-mail or text message, to ensure that data exchange(s) occurs when direct communication is reestablished.

In some instances, consumers lack information on the performance and health of their HVAC system, which may lead to unexpected changes in utility bills and/or undesirable delays in performing routine or other maintenance. Using data from the HVAC system, such as system run time, settings, sensor readings, maintenance schedules, and functional alerts as well as Web-based information such as climate data, daily weather data, utility rates, maintenance schedules, manufacturer's bulletins, and the like, an application may assemble periodic reports, on-demand reports, and/or alerts to be delivered to the consumer, for example by a message center on a server to a smart phone or personal computer application or by e-mail to a smart phone or personal computer.

For the purpose of discussion, the examples provided will focus primarily on delivery to a smart phone application having a touch screen. However, it will be appreciated that other delivery methods may employ different display characteristics and interactions due to conventions associated with the operating environments.

When a user opens the application, a home screen 800 may open, for example, with a user provided identifier 802 for a default thermostat location, a summary of the current state 804 of the selected thermostat, a scrolling list of recent system actions in reverse chronological order 806, and selectable options 808, as shown in Figure 32. In some embodiments, home screen 800 may include an indication 803 of the number of recent system actions which have not been reviewed. Touching the identifier 802 may provide an options screen 810, which may allow the user to specify a thermostat at a different location 812 which typically would return the display to the home screen 800 with the information for the selected thermostat displayed. In the alternative, the user may select from the list provided on options screen 810. Many of the displayed options are self-explanatory and/or have been described previously. Of the illustrative examples, the "Messages" option will be discussed below.

Selecting the Settings icon 814 may direct the application to display screen 816, which confirms the location 822 for which the preferences will be selected and permits updating various settings pertaining to the selected location. Among those settings may be "Notification Preferences" which when selected calls up screen 820 shown in Figure 33. The illustrated screen 820 provides a toggle for turning status updates on and off, and a list 826 of other possible notification categories that the user may elect to receive and/or suppress. Typically the list 826 of possible notification categories will indicate visually which categories are currently selected by displayed text, a check box, radio button, highlighting, or the like.

When thermostat status updates are turned on, the application displays screen 830 which again confirms which location is currently selected at 832. Screen 830 also displays a set of selectable categories which may be selected and indicates visually which categories are currently selected by displayed text, a check box, radio button, highlighting, or the like. An illustrative example of the Thermostat

Maintenance status category is shown on screen 840 which includes a toggle for the reminder and a user selectable reminder indicator. In some embodiments, the display may also indicate the time remaining until maintenance is suggested.

With brief reference to Figure 2, the HVAC controller 18 may be configured to communicate with a remote device such as the remote device 62. The HVAC controller 18 may send information to the remote device 62, and the remote device 62 may send information to the HVAC controller 18, sometimes via an intervening remote server. Figure 29 provides a schematic block illustration of a mobile device 870 that may be used in programming an HVAC controller 872 of an HVAC system. In some embodiments, the mobile device 870 is a smartphone or tablet computer, but this is not required. In some embodiments, the mobile device 870 may be considered as an example of the remote device 62 (Figure 2).

The mobile device 870 may include a touch screen display 874 that is configured to display information and to permit a user to enter information. A network connection 878 may be configured to communicate with a remote server 880 that is itself in operative communication with the HVAC controller 872. The mobile device 870 includes a controller 876 that is in operative communication with the touch screen display 874 and the network connection 878. The controller 876 is configured to receive one or more messages related to the operation of the HVAC system via the network connection 878, and to display the one or more messages on the touch screen display 874.

In some embodiments, one or more messages are displayed in a message center, sometimes in a list format. When so provided, the most recent messages may be displayed at the top. Alternatively, the most serious or urgent messages may be displayed at the top. In some cases, each message has a message description and a time stamp displayed. Optionally, each message has an indicator that indicates if the message has already been selected and read by the user. In some embodiments, at least one of the messages in the message center are selectable, and once a message is selected, the controller 876 may be configured to display on the touch screen display 874 display additional information regarding the selected message. In some cases, the messages in the message center can be deleted by the user. In some embodiments, the controller 876 executes an application program, and the message center is implemented by the application program.

A variety of messages may be displayed in this manner. For example, in some embodiments, at least one of the messages may be an alert that alerts the user to a failure of a component of the HVAC system. In another example, at least one of the messages may be a suggestion that suggests an alternative setting for the HVAC system. In another example, at least one of the messages may be a maintenance reminder for the HVAC system. In another example, at least one of the messages may relate to usage or usage patterns of the HVAC system.

Figure 30 provides a schematic block illustration of a mobile device 882 that may be used in programming an HVAC controller 872 of an HVAC system. It will be appreciated that there may be significant similarities between the mobile device 882 (Figure 30) and the mobile device 870 (Figure 29). The mobile device 882 may be considered as an example of the remote device 62 (Figure 2). In some

embodiments, the mobile device 882 is a smartphone or tablet computer, but this is not required. The mobile device 882 includes a user interface 884 that is configured to display information and to permit a user to enter information. A network connection 888 is configured to communicate with a remote server 880 that is itself in operative communication with a HVAC controller 872. The mobile device 882 includes a memory 890 for storing an application program. A controller 886 is in operative communication with the user interface 884, the network connection 888 and the memory 890.

The application program, stored in the memory 890, may enable a user to remotely program one or more functions of the HVAC controller 872 via the user interface 884 and to output one or more programmed functions to the remote server 880 via the network connection 888 when the application program is executed by the controller 886. In some embodiments, the application program may be further configured to receive one or more messages related to the operation of the HVAC system via the network connection 888, and to display the one or more messages via the user interface 884.

In some embodiments, each message has a message description and a time stamp displayed. In some cases, at least one of the messages includes an alert that alerts the user to a failure of a component of the HVAC system, a suggestion that suggests an alternative setting for the HVAC system, a maintenance reminder for the HVAC system, or a usage message indicating the usage of the HVAC system. In some embodiments, the one or more messages are displayed in a message center, wherein the one or more messages are displayed in the message center in a list format, with the most recent or most urgent messages are displayed at the top. Optionally, at least one of the messages in the message center are selectable, and once a message is selected, the application program is configured to display via the user interface additional information regarding the selected message.

Figure 31 is a flow diagram of an illustrative method that may be carried out using the mobile device 870 (Figure 29) or the mobile device 882 (Figure 30). One or more messages that are related to the operation of the HVAC system may be received at the wireless mobile device as generally indicated at block 892, where each message includes a message description and a time stamp. As shown at block 894, the one or more messages may be displayed on a display of the mobile device in a message center. A user may be allowed to select one of the messages displayed in the message center, and in response, additional information regarding the selected message may be displayed, as generally indicated at block 896. In some embodiments, at least one of the messages includes an alert that alerts the user to a failure of a component of the HVAC system, a suggestion that suggests an alternative setting for the HVAC system, a maintenance reminder for the HVAC system, or a usage message indicating the usage of the HVAC system.

Figure 34 illustrates an illustrative interaction with a message center which may serve two thermostat locations and which may present messages in reverse chronological order with messages from multiple locations mingled and identified by location. As before, the display of home screen 800 identifies a location for which selection attributes may be altered and presents options for further user interaction on screen 810a. Those interactions may proceed generally as detailed above. If the Messages option is selected, data presentation may depend upon whether one or more thermostats are currently configured as shown on screen 850 and 850a of Figure 35. Note in Figure 35, the messages may include an indicator (bullet) which shows which messages have been reviewed by the user and those messages which have not been reviewed. Selecting an individual message from either screen 850, 850a may display a screen such as 855, 856, or 857 of Figure 36 with additional information regarding the message and one or more options for addressing and/or dismissing the message.

In some embodiments, the message center may assign priorities to messages and select an appropriate manner of bringing selected messages to the user's attention. As shown in Figure 37, an urgent message may be transmitted through an appropriate network path to a smart phone and/or thermostat and may result in a pop- up message being displayed on the screen of the smart phone and/or the thermostat. In the case of an urgent message displayed on the screen of the thermostat, additional cues such as audible alarms and/or flashing of the light ring may serve to attract a user's attention. A pop-up message may suggest an action or allow the message to be dismissed (see Figure 37). Other display configurations such as those of Figures 38, 39 and 40 may also be employed. As shown in Figure 40, an initial screen may be presented that provides access to multiple messages 862 and/or a linked screen to provide additional details 864 of the messages.

Other types of messages that may be displayed to a user via the message center by the application program code may include, but are not limited to, messages related to alerts, maintenance, tips/advice, promotions, and usage. An alert message may indicate that something is not functioning properly, and may require immediate attention or some action to be taken by the user. For example, in some cases, an alert message may indicate that the HVAC controller has become disconnected from a server or the local wireless area network. In other cases, an alert message may warn of an impending dead battery or may alert the user to an unsafe temperature. A maintenance message may remind the user of a needed or recommended filter change based on a timer or a system load or may remind the user to change the battery. The maintenance message may include the part number or other description of the recommended filter or other part, so that the user can pick one up when convenient.

A tips/advice type of message may provide a user with information and/or recommend one or more actions that a user may take to improve the performance and/or efficiency of the HVAC system, and/or improve their comfort level. In one example, a tips/advice type of message may inform the user that the system performance has degraded and may recommend to the user to have the air ducts cleaned. In another example, the tips/advice message may recommend a schedule based on the user's manual setpoint changes. Alternatively, or in addition, the message may include a recommendation to the user to use the geofencing feature (described else wherein herein) if the user's manual setback changes do not follow a clear pattern. In yet another example, the message may display a recommendation to open one or more windows based on the outdoor temperature matching the desired indoor temperature setpoint, sometimes taking into account humidity, air quality and/or other factors inside and/or outside of the house.

A promotions message may include information about additional solutions, producis, or services that a certified contractor currently offers that may be of interest to the user, sometimes based on actual historical performance data of the HVAC system and/or user interactions with the HVAC system. For example, if the humidity of the inside space is low in the winter months, a promotions message may be provided recommending the installation of a humidifier to increase the comfort of the user.

Usage messages may contain information about automated or manual system state changes. For example, a usage message may inform the user that the HVAC controller has entered a "Home" mode or setting because a user has activated the one- touch action labeled "Home" or because a user has crossed a proximity boundary indicating that they have arrived or are about to arrive at home. In another example, a usage message may inform the user that the HVAC controller has entered the "Home" mode according to a programmed schedule. In some cases, the application program code may be programmed to display or transmit an informative message to a user based on the user's behavior or their interactions or frequency of interactions with certain features of the HVAC controller and/or HVAC system. For example, the application program code executed by the remote device 62 may be programmed to periodically poll the HVAC controller for selected information about the use of specific features such as, for example, an auto changeover feature or geofence feature. If the data received from the HVAC controller by the application program code indicates that the auto changeover feature has never been used by the user, the application program code may display a message to the user containing useful information about the auto changeover feature and how and when to use the auto changeover feature. Similarly, if the data received by the application program code from the HVAC controller indicates that the user is not using a geofence (e.g. proximity boundary) to trigger activation of an "away" setting or an "at home" setting by the HVAC controller, the application program code may display or transmit a message to the user about geofencing, how to activate a geofence, and/or how to select a geofence appropriate for their lifestyle. These are just some examples.

The application program code (or app) running on the remote device (e.g. smartphone, tablet, laptop, etc.) may be downloaded from an external Web service. In some cases, the application program code may be downloaded from Apple Inc.'s ITU ES™ or Google Play. In other cases, the application program code may be available for download from a web service that is provided to support use of the HVAC controller 18. An example of such a web service is Honeywell's TOTAL CONNECT™ web service. The application program code may be stored in the memory of a user's remote device 62 and may contain a set of instructions for execution by a processor related to the installation, configuration, connection, and personalization of the HVAC controller 18. The user's remote device 62 may be any one of the remote devices described herein. In some cases, the application code may be stored in the memory of a user's smartphone or tablet computer for execution by the smartphone or tablet computer's processor to carry out various functions to facilitate the installation, configuration, and setup of the newly installed HVAC controller 18. In other cases, the application program code may be stored in the memory of a user's personal or desktop computer for execution by the computer's processor to carry out various functions that may facilitate the installation, configuration, connection and personalization of the HVAC controller 18.

Additionally, once the HVAC controller 18 is successfully installed and configured to control the HVAC system 4, the application program code may also facilitate control of the HVAC controller 18 from a remote location other than at the user interface provided at the HVAC controller 18.

In some cases, the application program code may provide a uniform installation setup interface across multiple platforms (e.g. HVAC controller 18, remote device, web service) for accessing and interacting with the HVAC controller 18. The application code may utilize a simple communication protocol that allows the application program code to be executed by multiple platforms (e.g. web, HVAC controller, and smartphone/tablet application). For example, the web service and the HVAC controller may utilize the same installation setup logic by executing the same code from the same code base. In some cases, the installation setup code may be compiled for use by the HVAC controller 18, a web service, and/or an application program code. For example, in some cases, for example, the web service, the application program code, and the HVAC controller each contain the same installation setup definitions. However, in some cases, the application program code executed by the user's remote device may be programmed to determine how to display each feature of the installation setup to the user via the device's user interface. This may permit the application program code executed by a user's remote device (e.g. smartphone or tablet) to connect to either the web service associated with the HVAC controller 18 or to the HVAC controller 18 directly. This feature also may permit a user to interact with the HVAC controller 18 across multiple platforms with minimal differences in the installation setup process and the overall user experience.

In some cases, the HVAC controller may switch to an energy savings setting when the occupants of the building are away (unoccupied mode), and then switch back to a comfort setting when the occupants of the building return or are present (occupied mode). In some cases, the HVAC controller 18 may be configured to execute a program code stored in the memory for detecting if a user's mobile wireless device, having a unique identifier, is currently enrolled in a local wireless network by repeatedly broadcasting a query for the mobile wireless device over the wireless local area network. The HVAC controller 18 may be configured to change at least one operational parameter setting of the HVAC system (e.g. a temperature set point) to a comfort setting in accordance with an occupied mode upon receiving a response from the mobile wireless device to the query indicating occupancy of the building, and/or change at least one operational parameter setting of the HVAC system (e.g. a temperature set point) to an energy saving setting in accordance with an unoccupied mode upon not receiving a response from the mobile wireless device to the query indicating the user is not present.

In another instance, the use of location signals from one or more cell phones or tablet computers which have enabled location services, may allow the system to infer that a user will soon be home or is home and to adjust the temperature of the home with enough lead time to prepare the home for the user's arrival. The inference may, in some embodiments, include the requirement that the user appears to be moving toward the home as opposed to merely being nearby for an extended period of time. Further, the one-touch macros discussed above may use the departure or expected arrival of the user's mobile device as a trigger for a programmed action, such as adjusting the temperature set point.

In some cases, the application program code executed by the user's remote device 62 may cause the remote device 62 to determine that the user or, more specifically, that the user's remote device 62, has crossed at least one or more proximity boundaries established relative to the location of the HVAC controller 18 or another location. In other cases, the user's remote device 62 may transmit its location to a server or the like, where the server may determine that the user's remote device 62 has crossed at least one or more proximity boundaries established relative to the location of the HVAC controller 18 or another location.

In some embodiments, utilizing the physical location of a user's remote device

62 (such as a smartphone or tablet, for example) may provide more accurate information as to whether or not the user is at home. These days, people tend not to leave their home without their smartphone and will, in fact, make a special trip back home if they have inadvertently left their smartphone. By using the physical location of the remote device 62, the HVAC controller 18 does not, for example, have to rely on a proximity sensor or the like to determine whether or not a user is home at any particular time. While a proximity sensor can be used to detect motion and thus determine if someone is at home, it will be appreciated that a thermostat employing a proximity sensor for this purpose may only determine a user is home if the user happens to walk through the particular hallway or room in which the thermostat is located. If a user is home, but stays in a different room, the thermostat may mistakenly decide that the user is not home, simply because the user has chosen not to walk past the thermostat itself. Utilizing the position of the smartphone to determine the location of the user, and thus whether or not they are home, may provide more comfort and more energy savings.

Figure 41 is a schematic diagram of an illustrative use of geofencing in controlling an HVAC system. A home 5030 may represent the home 2 (Figure 1). As shown, a first boundary, or geofence, 5032 may be defined around the home 5030. It will be appreciated that the home 5030 may be a house, an apartment, a townhouse, a condominium or the like. A second boundary, or geofence, 5034 may be defined around the home 5030 at a greater distance than the first geofence 5032. While schematically drawn as concentric circles, it will be appreciated that the first geofence 5032 and/or the second geofence 5034 may have any desired shape. While the second geofence 5034 is drawn as encircling the first geofence 5032, in some instances, it is contemplated that the second geofence 5034 may at least partially overlap regions of the first geofence 5032.

A mobile device 5036, representative of the remote device 62 (Figure 2), typically has one or more techniques for determining its location. For example, the mobile device 5036 may determine its location via a self-contained GPS unit. In some embodiments, the mobile device 5036 may determine its location via triangulation of cell phone signals. If the mobile device 5036 is programmed with the details of a geofence such as the first geofence 5032 and/or the second geofence 5034, the mobile device 5036 may determine when it crosses the first geofence 5032 and/or the second geofence 5034, and in what direction, and can transmit that information to a remote server 5038. In some embodiments, the mobile device 5036 may simply transmit its location from time to time to the remote server 5038, and the remote server 5038 may determine when the mobile device 5036 crosses the first geofence 5032 and/or the second geofence 5034, and in what direction.

Figure 42 is a schematic block diagram of an illustrative mobile device 5036, which may be similar to mobile devices described herein and which may, for example, represent the mobile device 62 (Figure 2). In some cases, the mobile device 5036 is a smartphone. The illustrative mobile device 5036 has location services such as GPS or cell phone signal triangulation that can determine the location of the mobile device 5036. The illustrative mobile device 5036 includes a user interface 5100 and a memory 5102 for storing two or more predetermined geo-fences (such as first geofence 5032 and second geofence 5034), each defining a different sized region about the home 5030 (Figure 93) of a user of the mobile device 5036. In some embodiments, a first one of the two or more predetermined geo-fences, such as the first geofence 5032, defines a first sized region and a second one of the two or more predetermined geo-fences, such as the second geofence 5034, defines a second sized region, and the second sized region has an area that is at least 25%, 50% or 100% larger than an area of the first sized region.

A controller 5104 of the illustrative mobile device 5036 is operatively coupled to the user interface 5100 and the memory 5102. In the example shown, the controller 5104 is configured to accept a selection of one of the two or more predetermined geo- fences via the user interface 5100 and to report out when the location of the mobile device 5036 crosses the selected one of the two or more predetermined geo-fences to a remote device, such as a remote server. In some cases, the controller 5104 may be further configured to accept a selection of another one of the two or more

predetermined geo-fences via the user interface 5100, and to report out when the location of the mobile device 5036 crosses the selected another one of the two or more predetermined geo-fences to a remote device, such as a remote server. In some cases, the controller 5104 is configured to not report out when the location of the mobile device 5036 crosses unselected ones of the two or more predetermined geo- fences.

In some embodiments, the remote device is a remote server 5038, and the controller 5104 is configured to report when the location of the mobile device 5036 crosses the selected one of the two or more predetermined geo-fences to the remote server 5038 via a wireless communication port. In some instances, the remote server 5038, in response to receiving a report that the location of the mobile device 5036 crossed the selected one of the two or more predetermined geo-fences, notifies an

HVAC controller 5040 (Figure 41) in the home 5030 of the user of the mobile device 5036 to change a setting. In some cases, the setting includes a temperature set point or a lighting setting. The change in the setting may be reported back to the mobile device 5036, and the controller 5104 of the mobile device 5036 may be configured to display the changed setting on the user interface 5100 of the mobile device 5036.

Figure 43 is a schematic block diagram of an illustrative building automation system 5042 that includes a memory 5044 and a controller 5046 that is operably coupled to the memory 5044. The memory 5044 stores a geofence that defines a region about the user's building. The controller 5046 is configured to identify when a user's mobile device 5036 crosses the geo-fence, and in response, cause an adjustment to a temperature set point of the building automation system. In some embodiments, the controller 5046 is also configured to automatically increase the size of the region of the geo-fence if the controller 5046 receives an indication (e.g. from a user) that the geo-fence is too sensitive, and to automatically decrease the size of the region of the geo-fence if the controller 5046 receives an indication (e.g. from a user) that the geo-fence is not sensitive enough.

In some embodiments, the indication (e.g. from the user) that the geo-fence is too sensitive is in response to a query presented to the user. In some cases, the indication from the user that the geo-fence is too sensitive is in response to a query presented to the user via the mobile device 5036. In some instances, the indication from the user that the geo-fence is too sensitive is in response to a query presented to the user via a web page. Optionally, the indication from the user that the geo-fence is not sensitive enough is in response to a query presented to the user. In some cases, the indication that the geo-fence is too sensitive or not sensitive enough is based on historical HVAC data, such as the length of times and spacing between the occupied and unoccupied modes.

Figure 44 is a schematic block diagram of an illustrative mobile device 5200 having location services for determining a location of the mobile device 5200. The mobile device 5200 includes a user interface 5202 and a memory 5204. The memory 5204 stores a first geofence (such as first geofence 5032) that defines a first region about a user's building and a second geofence (such as second geofence 5034) that defines a second region about the user's building, wherein the second region is different than the first region. The memory 5204 may also store a programmable geofence schedule that assigns the first geo-fence to a first scheduled time period and assigns the second geo-fence to a second scheduled time period. A controller 5206 is operatively coupled to the memory 5204 and the user interface 5202. The controller 5206 is configured to activate the first geo-fence during the first scheduled time period(s), and to identify when the mobile device 5036 crosses the first geo-fence during the first scheduled time period(s). The controller 5206 is further configured to activate the second geo-fence during the second scheduled time period(s), and to identify when the mobile device 5036 crosses the second geo-fence during the second scheduled time period(s). The controller 5206 may report to a remote device 5208 such as a remote server when the location of the mobile device 5036 crosses the first geo-fence during the first scheduled time period(s) and when the location of the mobile device 5036 crosses the second geo-fence during the second scheduled time period(s).

In some embodiments, the remote device 5208 is a remote server, and the controller 5206 is configured to report when the location of the mobile device 5036 crosses the first geo-fence during the first scheduled time period(s) and when the location of the mobile device 5036 crosses the second geo-fence during the second scheduled time period(s). The remote server 5208, in response to receiving a report that the location of the mobile device 5036 crossed the first geo-fence during the first scheduled time period(s) or that the mobile device crossed the second geo-fence during the second scheduled time period(s), may notify a building automation controller 5212 in the user's building 5214 to change a setting. In some

embodiments, the first scheduled time period(s) corresponds to a weekday, and the second scheduled time period(s) corresponds to a weekend day. Alternatively, the first scheduled time period(s) may correspond to a first part of a day, and the second scheduled time period(s) may correspond to a second part of the same day. These are just some examples.

In some cases, and to keep things relatively simple, a geofence setting may be offered to the user to select between a smaller proximity boundary and a larger proximity boundary. By manipulating the geofence setting, the user may select between the smaller proximity boundary and the larger proximity boundary.

Selection of the small proximity boundary may increase the sensitivity of the HVAC controller 18 to the user's location, as determined by the user's remote device 62, a server and/or the HVAC controller 18.

Figure 45 shows a geofence settings menu screen 5050 that includes a radio button or other selectable option 5056 that permits a user to choose between a small proximity boundary (e.g. smaller radius geofence) and a large proximity boundary (e.g., larger radius geofence) that may be displayed on the user interface of the remote device 62 by the application program code. In one example, the smaller proximity boundary may have a radius extending approximately 500 feet (approximately 152.4 meters) outward from a predetermined location such as, for example, the location of the HVAC controller 18. The larger proximity boundary may have a radius extending approximately seven miles (or more) outward from the same predetermined location. These are just examples. It will be generally understood that the smaller and larger proximity boundaries can correspond to a radius of any suitable distance, as desired. In some cases, the area of the larger proximity boundary may be at least 25% greater than the area of the smaller proximity boundary, but this is just one example.

In some instances, a user may select the size of the proximity boundary based on their schedule. For example, a user may select a larger proximity boundary on days (e.g. weekdays) in which they typically commute to a secondary location (e.g. work), and may select a smaller proximity boundary for use on their non-commuting days (e.g. weekends) where they may remain relatively closer to their home. In another example, a user may select a larger proximity boundary for use during a first period of time (e.g. work hours such as 8:00AM-5:00PM), and a smaller proximity boundary for use during a second period of time (e.g. home hours such as 5:00PM - 8:00AM). More generally, it is contemplated that a plurality of proximity boundaries may each be assigned to a time slot in a proximity boundary "schedule", and thus the currently active proximity boundary at any given time may change during different times of a day, a week or other time periods.

In some cases, the temperature inside of the space controlled by the HVAC Controller may be more tightly controlled (e.g. within one degree of a control setpoint or less) to provide good comfort when the user is expected to be home, and may be allowed to drift by a predetermined amount to provide greater energy efficiency when the user is not expected to be home. In some cases, the allowed drift from the comfort setting may be set depending on the size of the selected proximity boundary. For example, a larger temperature drift may be allowed if a larger proximity boundary is selected. That is, it may take a user longer to reach home after crossing the proximity boundary when the proximity boundary is larger, and thus the HVAC system may have more time to recover from a larger temperature drift and reach the comfort temperature before the user arrives. When so provided, selecting a larger proximity boundary may result in more energy savings (via a larger allowed drift).

In some cases, the proximity boundary may be established relative to the location of the HVAC controller 18 such as, for example, the user's home. In one example, when the user leaves the proximity boundary, sometimes as determined by the application program code executed by the user's remote device 62, the user's remote device 62 may cause the HVAC controller 18, either directly or indirectly, to adjust the temperature setpoint and/or any other applicable operating parameters (e.g. lights, ventilation, humidification/dehumidification, etc.) according to one or more "away" settings. Conversely, when the remote device 62 detects that the user has reentered the proximity boundary, the user's remote device 62 may cause the HVAC controller, either directly or indirectly, to adjust the temperature setpoint and/or any other operating parameters according to one or more at "home" settings. .

In some cases, a proximity boundary may be established relative to a user's secondary location such as, for example, the user's workplace, a school, or some other location. Using a proximity boundary that is defined relative to a user's secondary location may be particularly appropriate when the user's secondary location is located a relatively short distance away from the user's home. In this example, when the remote device 62 detects that the user has entered the proximity boundary at the user's secondary location, the user's remote device 62 may cause the HVAC controller, either directly or indirectly, to adjust the temperature setpoint and/or any other operating parameters according to one or more "away" settings. Conversely, when the remote device 62 determines that the user has left the proximity boundary at the use's secondary location, the user's remote device 62 may cause the HVAC controller, either directly or indirectly, to adjust the temperature setpoint and/or any other operating parameters according to one or more "home" settings.

In some instances, the proximity boundary at the user's secondary location may become active only at scheduled time periods (e.g. during work hours). In some cases, such as when the user's secondary location is relatively close to the user's home, the HVAC controller may allow the temperature (and/or other environmental parameter) inside of the home to drift by a predetermined amount that cannot be fully recovered from in the time that it would normally take the user to travel from the user's secondary location to the user's home. However, by referencing a programmed schedule, such as a user's work schedule, and by assuming the user will remain at the user's secondary location during the programmed work schedule, the HVAC system may obtain more energy savings than if the user's schedule were not taken into account. If the user were to leave the user's secondary location early, the user's remote device 62 may cause the HVAC controller, either directly or indirectly, to begin adjusting the temperature and/or any other operating parameters according to one or more "comfort" settings. In some cases, however, the "comfort" setting may not be achieved by the time the user arrives at home.

In some instances, a household may include more than one person, such as a husband, a wife and two children. Each person may have a remote device 62 (e.g. smartphone) that executes application program code that causes the remote device 62 to determine that the corresponding user, or more specifically, that the corresponding user's remote device 62, has crossed one or more proximity boundaries established relative to a location such as home, work, school, etc. A household account may be established that links each of the remote device 62 associated with a household to the household account. Each remote device 62 may report when the corresponding remote device 62 crosses a particular proximity boundary to a master device, such as a server. The master device (e.g. server) may be in communication with the HVAC controller of the household, a security system controller of the household, a lighting system controller of the household, and/or any other suitable controller as desired. The master device (e.g. server) may be programmed to determine when all (or some subset) of the household members have departed from the household and crossed one or more corresponding proximity boundaries. Each user may have the same or different active proximity boundaries. When this occurs, the server may instruct the HVAC controller to assume a more energy efficient setpoint. In some cases, the master (e.g. server) may also instruct a security system controller to arm the security system and lock all of the doors, and may instruct a lighting controller to turn off the lights.

In some cases, a different proximity boundary may be set for each of the remote devices 62 of the household. For example, if the husband works about 20 miles (about 32.19 kilometers) from the household and the wife works about 10 miles (about 16.09 kilometers) from the household, the remote device 62 of the husband may use a proximity boundary that has a radius of about 15 miles (about 24.14 kilometers) from the household, and the remote device 62 of the wife may use a proximity boundary that has a radius of about 7 miles (about 1 1.27 kilometers) from the household. If the kids attend a school that is about 6 miles (about 9.656 kilometers) from the household, the remote devices 62 of the kids may use a proximity boundary that has a radius of about 4 miles (about 6.437 kilometers) from the household. These are just examples.

Alternatively, or in addition, the remote device 62 of each household member may use a different proximity boundary relative to a secondary location such as, for example, the member's workplace, school, or other location, as described above. Moreover, it is contemplated that different proximity boundaries may be assigned to different time slots of a proximity boundary "schedule" that may be associated with a particular household member.

In some cases, each household member may set a preferred comfort setpoint. The system may be programmed to set the comfort setpoint of the HVAC system based on which household member crosses a corresponding proximity boundary and is expected to return first. If at a later time, another household member crosses a corresponding proximity boundary and is expected to return, the system may set the comfort setpoint based on a combination of household members that are expected to be at the household. For example, if the wife prefers a heating setpoint to be at 74 degrees and the husband prefers a heating setpoint to be 72 degrees, the system may set the comfort setpoint to 74 degrees upon arrival of the wife, and when the husband arrives later, sets the comfort setpoint to 73 degrees. The system may determine an appropriate setpoint based on the particular combination of household members that are expected to be home. For example, the system may average the set points that are associated with the household members that are expected to be home. In some cases, the average may be a weighted average. In some cases, some household members' preferences may have a higher priority over other household member's preferences. For example, the husband and wife's setpoint preferences may take priority over the kid's preferences.

In some instances, when a user leaves the household and crosses a proximity boundary, the system may require that the user remain across the proximity boundary for a predetermined time period before activating an energy savings setpoint in the household. Alternatively, or in addition, when a user is returning to the household and crosses a proximity boundary, the system may require that the user remain across the proximity boundary for a predetermined time period before activating a comfort setpoint in the household. The proximity boundary used when the user leaves the household and the proximity boundary used when the user returns to the household may be the same or different proximity boundaries. In one example, the proximity boundary used when the user leaves the household may have a larger radius than the proximity boundary used when the user returns to the household.

In some cases, the proximity boundary that is to be used may be learned by the system. For example, location data from each household member may be recorded, and geo patterns may be identified from the recorded location data. In some cases, the location data may be time stamped, and geo patterns in both location and time may be identified. From this, suitable proximity boundaries may be identified and/or learned by the system. For example, if the geo pattern identifies that the husband goes to a common location (e.g. work) M-F from 8:00AM-5:00PM, the system may learn a proximity boundary that is between the household and that location, perhaps at 60 percent of the distance from the household to that location. Also, and in some cases, that learned proximity boundary may only be activated on M-F. At the same time, if the geo pattern identifies that the kids go to a common location (e.g. school) M-F from 7:30AM-2:30PM, the system may learn a proximity boundary between the household and that location, perhaps at 60 percent of the distance from the household to that location. For more granularity, route information may be extracted from the geo patterns, and the learned proximity boundaries may be based, at least in part, on the route information. For example, a learned proximity boundary may be defined as not only traveling a specified distance from the household but also following an identified route. If such an event occurs, the proximity boundary may be deemed to have been "crossed".

In some embodiments, an application program code, as discussed in detail herein, may cause the user's remote device 62 to launch a geofence setup wizard to aid a user in selecting an appropriate geofence. In other cases, a computing device (e.g. tablet, laptop, desktop) may access a web-site or the like on a server, which may provide a geofence setup wizard to aid a user in selecting an appropriate geofence. In some cases, the geofence setup wizard may display one or more screens on the display of a user interface that may guide a user through establishing an appropriate geofence suitable for their lifestyle. Figures 46-49 show examples of different geofence setup screens that may be displayed on the display of a user interface of a user's remote device 62 by a geofence setup wizard. In some cases, a user's response to a user query presented on a first screen may determine the next screen displayed by the geofence setup wizard. In other cases, the geofence wizard may display a sequence of two or more screens in a predetermined order. In this example, the user may have the ability to skip any non-applicable screens.

In some cases, the geofence setup wizard may display a first screen 5060 that includes a first user query 5066 that queries a user about their daily commute, as shown in Figure 46. The first screen 5060 may include one or more selectable options 5070 for responding to the first user query 5066. In a subsequent screen 5080, as shown in Figure 47, the geofence setup wizard may display a

recommendation 5086 to the user based on the user's response to the first user query recommending a large geofence setting, a small geofence setting, a custom geofence setting and/or establishing a geofence relative to the user's primary location (e.g. home) or secondary location (e.g. work or school). In the example shown in Figure 47, the geofence wizard displays a recommendation 5086 recommending that the user select the small geofence setting on the settings menu screen 5050 (Figure 97) displayed by the application program code. Additionally, the geofence wizard may display another screen including another user query that queries the user about the frequency of their commute. For example, the geofence wizard may display a screen 5090, as shown in Figure 48, which asks or prompts a user to select the days on which they typically commute to work or school from a list of selectable options 5096 corresponding to each of the days of the week. The geofence wizard may then display a screen 6000 that may include a user query 6006 that may ask the user if they would like to use a different geofence for any unselected days. Screen 6000 may include a first option 6012a labeled "yes" and a second option 6012b labeled "no" for responding to the user query 6006. Selection of a different geofence on days in which the user does not typically commute to a secondary location such as work or school may be particularly appropriate for a user that commutes a distance greater than about 24 kilometers (about 14.91 miles) and that stays relatively close to home on their non-commuting days. This feature may allow a user to select a smaller geofence and apply it to any non-selected days on which the user is typically not travelling to and from the secondary location. These are just some examples.

Alternatively, or in addition to the various embodiments described herein, the proximity boundary(s) may be customized by the user and may have any shape and/or size that more appropriately reflects the user's local and/or daily travel habits. For example, at least one proximity boundary may be configured by the user to have the same general size and/or shape of the city in which their home or workplace is located. Figure 50, for example, shows another view of a settings menu screen 6060 that permits a user to select a custom boundary option. Selection of the custom boundary option 6066 by a user may cause the application program code to display a subsequent screen 6070, as shown in Figure 51, on the display of the user interface that may permit a user to configure a custom proximity boundary. As shown in Figure 51, the application program code may display an area map 6076 on the user interface. The user may be prompted to draw a proximity boundary on the area map 6076 by dragging their finger or a stylus on the area map 6076. In some

embodiments, if desired, the user may zoom in or zoom out on the area map 6076, depending on how big they want their customized proximity boundary to be, by performing a pinch gesture somewhere on the user interface. The application program code may accept the user's customized proximity boundary and may store the custom proximity boundary in the memory of the user's remote device 62. Again, the user may choose to establish the proximity boundary relative to the location at which the HVAC controller is located, typically their home, and/or a secondary location such as a workplace or school. When the user's remote device 62 determines that the user has crossed the selected proximity boundary, the user's remote device 62 may send a command to the HVAC controller 18, either directly or indirectly, to adjust the temperature setpoint in accordance with the user's selected settings such as for example, the user-specified "at home settings" or "away settings" depending upon if the user is entering or leaving the selected boundary.

In some embodiments, the user may want to be able to establish a custom proximity boundary that is based upon a radius from their home or other building.

Figures 52-54 provide illustrative screens that may be displayed on the user's remote device 62. Starting in Figure 52, a "set my geo fence" screen 6100 may be displayed. In the example shown, a map 6102 is provided, with a location marker 6104 showing the present location of the user's remote device 62. In some instances, setting a geofence boundary is most accurate when the user, or more accurately, the user's remote device 62, is located at the home or other building that is to be the center of the proximity boundary. In some instances, while not illustrated, it is possible that a home address, previously entered when initially setting up the HVAC controller 18, may be used to locate the location marker 6104 if the user is away from home or when the location services of the remote device 62 are turned off when setting or adjusting a proximity boundary. In some embodiments, if the home address was not previously entered, the user's remote device 62 may prompt the user to enter their home address so it can be used to locate the location marker 6104.

The illustrative screen 6100 includes a sizing marker 6106, shown here as a black dot. As the user moves the sizing marker 6106 inwards towards the location marker 6104, a boundary 6108 will become smaller in radius. As the user moves the sizing marker 6106 away from the location marker 6104, the boundary 6108 will become larger in radius. It will be appreciated that the boundary 6108, as illustrated, becomes a new proximity boundary. While drawn as a circle, in some instances the boundary 6108 may take any other predetermined and/or user-defined shape. For example, if the user lives next to a large body of water such as an ocean, there is little need for the boundary 6108 to pass over the water. In such circumstances, perhaps a rectangular boundary 6108 may be more useful. In some cases, the boundary 6108 may be a polygon, and the user may add a vertex to the polygon by touching a location on the boundary 6108 where a vertex should be added. Another sizing marker may be automatically added at that newly created vertex. Once added, the user may drag the new sizing marker to any desired location, which may change the shape of the boundary 6108. With multiple vertices and corresponding sizing markers, the user may easily define nearly any desired shape for the boundary 6108 about the location marker 6104.

In example shown in Figure 53, a pop up screen 61 10 instructs the user how to drag the sizing marker 6106 in one direction or another in order to resize the boundary 6108. In some instances, rather than dragging the sizing marker 6106, the boundary 6108 may be displayed on the screen 6100, and a user may utilize a pinch gesture somewhere on the screen 6100 to make the boundary 6108 smaller or larger, similar to how a user can resize a digital photo, or zoom in or out on a map. In some embodiments, especially if the user is not at home when setting or adjusting a proximity boundary about the home, the screen 6100 may display a map of the user's general area, and superimpose the boundary 6108 on the map. The user may use a finger on the screen 6100 to move the map around until the boundary 6108 is generally centered on their home. It will be appreciated that in doing so, it may be useful to zoom out, using a pinch gesture, to generally locate an area on the map, then zoom in, again using a pinch gesture, to fine tune the location of the user's home before zooming out again to an appropriate distance so that the user can locate the boundary 6108.

In some instances, as illustrated for example in Figure 53, the screen 6100 may display a pop up screen 6112 that reminds the user that they should be as close to home, or more accurately as close as possible to the HVAC controller 18, when adjusting the boundary 6108. In some embodiments, however, as described above, the user may be not use the location services on the remote device to center the geofence, but rather may be able to use their previously entered home address, newly add their home address, or graphically locate their home on the map 6102, as desired. Figure 54 provides a view of the screen 6100 without any pop up screens, so that the user may clearly see their newly set proximity boundary 6108.

In some cases, more than one remote device 62 may be configured to communicate with and/or control the HVAC controller 18. Each remote device 62 may be associated with a unique user profile stored in the memory of the HVAC controller 18 and/or at a remote server to which both the HVAC controller 18 and the user's remote device 62 are connected. An example of such a server is Honeywell's TOTAL CONNECT™ server. Each remote device 62 may be configured to transmit a message to the server indicating that a proximity boundary has been crossed as the users, along with their respective remote devices 62, enter and/or exit the area defined by a proximity boundary. As discussed herein, the proximity boundary may be defined relative to the location of the HVAC controller (e.g. the user's home) or a user's secondary location and may be customized by the user. In some cases, the server may be programmed to transmit a command to the HVAC controller 18 to adjust the temperature setpoint and any additional operating parameters according to an "away" setting upon determining that a last user in a group of users is no longer within the area defined by the proximity boundary upon receiving an indication from the last user's remote device 62 that the proximity boundary has been crossed.

Conversely, the server may be programmed to transmit a command to the HVAC controller 18 to adjust the temperature setpoint and any additional operating parameters according to an at home setting upon receiving an indication from a user's remote device 62 that the proximity boundary has been crossed by a first user of a group of users, indicating that the first user is now within the area defined by the proximity boundary.

Alternatively or additionally, in certain cases, such as where two or more remote devices each have a unique profile, the HVAC controller 18 or the server may be programmed to include a set of hierarchical rules for determining which individual user profile takes precedence for controlling the HVAC system when both of the remote devices 62 are being actively used by a user and at least one user is determined to be within an area defined by a predetermined proximity boundary.

Other methods employing a proximity boundary or other method of detecting a user's presence or approaching presence are shown and described in U.S. Patent Publication

No. 2012/0268766, filed on July 26, 2012 and U.S. Patent Publication No.

2014/0045482, filed on August 7, 2012, both of which are incorporated herein by reference in their entireties for all purposes. Additional Examples

1. A mobile device having location services for determining a location of the mobile device, the mobile device comprising:

a user interface;

a memory for storing two or more predetermined geo-fences each defining a different sized region about a home of a user of the mobile device;

a controller operatively coupled to user interface and the memory, the controller configured to accept a selection of one of the two or more predetermined geo-fences via the user interface; and

the controller further configured to report when the location of the mobile device crosses the selected one of the two or more predetermined geo-fences to a remote device.

2. The mobile device of example 1, wherein the remote device is a remote server, and the controller is configured to report when the location of the mobile device crosses the selected one of the two or more predetermined geo-fences to the remote server via a wireless communication port.

3. The mobile device of any of examples 1 or 2, wherein the remote server, in response to receiving a report that the location of the mobile device crossed the selected one of the two or more predetermined geo-fences, notifies a building automation controller in the home of the user of the mobile device to change a setting.

4. The mobile device of example 3, wherein the setting comprises a temperature set point.

5. The mobile device of example 3, wherein the setting comprises a lighting setting.

6. The mobile device of any of examples 3 to 5, wherein the change in the setting is reported back to the mobile device, and the controller of the mobile device is configured to display the changed setting on the user interface of the mobile device.

7. The mobile device of any of examples 1 to 6, wherein a first one of the two or more predetermined geo-fences defines a first sized region and a second one of the two or more predetermined geo-fences defines a second sized region, wherein the second sized region is at least 25% greater than the first sized region.

8. The mobile device of any of examples 1 to 7, wherein the controller is further configured to accept a selection of another one of the two or more

predetermined geo-fences via the user interface, and to report when the location of the mobile device crosses the selected another one of the two or more predetermined geo- fences to a remote device.

9. The mobile device of any of examples 1 to 8, wherein the controller is configured to not report when the location of the mobile device crosses unselected ones of the two or more predetermined geo-fences.

10. The mobile device of any of examples 1 to 9, wherein the mobile device is a smart phone with location services.

1 1. A building automation system servicing a user's building, the building automation system comprising:

a memory for storing a geo-fence that defines a region about the user's building; a controller operatively coupled to the memory, the controller configured to identify when a user's mobile device crosses the geo-fence, and in response, cause an adjustment to a temperature set point of the building automation system;

the controller further configured to:

automatically increase the size of the region of the geo-fence if the controller receives an indication from a user that the geo-fence is too sensitive; and

automatically decrease the size of the region of the geo-fence if the controller receives an indication from a user that the geo-fence is not sensitive enough.

12. The building automation system of example 11, wherein the indication from the user that the geo-fence is too sensitive is in response to a query presented to the user.

13. The building automation system of example 12, wherein the indication from the user that the geo-fence is too sensitive is in response to a query presented to the user via a mobile device of the user.

14. The building automation system of example 12, wherein the indication from the user that the geo-fence is too sensitive is in response to a query presented to the user via a web page.

15. The building automation system of example 11 , wherein the indication from the user that the geo-fence is not sensitive enough is in response to a query presented to the user.

16. A mobile device having location services for determining a location of the mobile device, the mobile device comprising:

a user interface;

a memory for storing a first geo-fence that defines a first region about a user's building and a second geo-fence that defines a second region about the user's building, wherein the second region is different than the first region, the memory further for storing a programmable geo-fence schedule, wherein the programmable geo-fence schedule assigns the first geo-fence to a first scheduled time period and assigns the second geo-fence to a second scheduled time period;

a controller operatively coupled to the memory and the user interface, the controller configured to: activate the first geo-fence during the first scheduled time period, and to identify when the mobile device crosses the first geo-fence during the first scheduled time period;

activate the second geo-fence during the second scheduled time period, and to identify when the mobile device crosses the second geo- fence during the second scheduled time period; and

report when the location of the mobile device crosses the first geo- fence during the first scheduled time period and when the location of the mobile device crosses the second geo-fence during the second scheduled time period to a remote device.

17. The mobile device of example 16, wherein the remote device is a remote server, and the controller is configured to report when the location of the mobile device crosses the first geo-fence during the first scheduled time period and when the location of the mobile device crosses the second geo-fence during the second scheduled time period to the remote server via a wireless communication port.

18. The mobile device of example 17, wherein the remote server, in response to receiving a report that the location of the mobile device crossed the first geo-fence during the first scheduled time period or that the mobile device crossed the second geo-fence during the second scheduled time period, notifies a building automation controller in the user's building to change a setting.

19. The mobile device of any of examples 17 or 18, wherein the first scheduled time period corresponds to a weekday, and the second scheduled time period corresponds to a weekend day.

20. The mobile device of any of examples 17 to 19, wherein the first scheduled time period corresponds to a first part of a day, and the second scheduled time period corresponds to a second part of the same day.

21. A computer readable medium containing program instructions for facilitating a user of a wireless mobile device in configuring a wireless HVAC controller, wherein execution of the program instructions by one or more processors of the wireless mobile device causes the wireless mobile device to carry out the steps of:

storing two or more predetermined geo-fences that each define a different sized region about a home of a user of the mobile device; displaying on a screen of the mobile device to accept a selection of one of the two or more predetermined geo-fences; and

reporting to a remote device when the location of the mobile device crosses the selected one of the two or more predetermined geo-fences.

23. A building automation system for controlling building automation equipment, the building automation system comprising:

a memory for storing one or more user defined macros, wherein each of the one or more user defined macros comprises a user selected trigger and a user selected action; and

a controller operatively coupled to the memory, wherein for each of the one or more user defined macros, the controller is configured to identify when the user selected trigger occurs, and in response, output one or more control signals to achieve the corresponding user selected action.

24. The building automation system of example 23, further comprising a communications port, wherein the communications port is configured to receive input from a user, wherein the input includes a user selected trigger and a user selected action for at least one of the one or more user defined macros.

25. The building automation system of example 24, wherein the communications port is configured to output the one or more control signals for controlling building automation equipment.

26. The building automation system of example 25, wherein the memory, controller and communications port is part of a server.

27. The building automation system of example 26, wherein the communications port is configured to receive input from a user's remote device, wherein the user's remote device is one of a smart phone, a tablet computer, a laptop computer, and a personal computer.

28. The building automation system of any of examples 26 or 27, wherein the communications port is configured to output the one or more control signals to a building controller, wherein in response, the building controller provides one or more control signals for controlling building automation equipment.

29. The building automation system of any of examples 23 to 28, wherein at least one of the user defined macros has a name that is user defined, and wherein the user defined name is displayed on a display. 30. The building automation system of any of examples 23 to 29, wherein the user selected trigger is selected from a plurality of predefined triggers.

31. The building automation system of example 30, wherein the plurality of predefined triggers include one or more of: activation by a user; activation at a specified time; activation when no one is home, and activation when someone is home.

32. The building automation system of any of examples 23 to 31, wherein the user selected action is selected from a plurality of predefined actions.

33. The building automation system of example 32, wherein the plurality of predefined actions include one or more of: lowering the temperature by a specified amount; raising the temperature by a specified amount; lowering the temperature by a specified amount for a specified length of time; raising the temperature by a specified amount for a specified length of time; changing the temperature to a specified value; changing the temperature in one or more specified zones; lowering the humidity by a specified amount; raising the humidity by a specified amount; lowering the humidity by a specified amount for a specified length of time; raising the humidity by a specified amount for a specified length of time; activating a fan to circulate air; deactivating a fan to not circulate air; activating a heat exchanger; and deactivating a heat exchanger; activate a security system; deactivate a security system; turn on lights; turn off lights; open a garage door, close a garage door; turn on a pool pump; turn off a pool pump; turn on an appliance; and turn off an appliance.

34. A remote user device comprising:

a user interface;

a memory for storing one or more user defined macros, wherein each of the one or more user defined macros comprises a user selected trigger and a user selected action;

a communications port;

a controller operatively coupled to the memory, the user interface and the communications port, the controller configured to accept via the user interface a definition for a new user defined macro by:

displaying a plurality of triggers via the user interface, and accepting a selection of a user selected trigger for the new user defined macro; displaying a plurality of actions via the user interface, and accepting a selection of a user selected action for the new user defined macro;

storing the new user defined macro in the memory; and the controller further configured to transmit the new user defined macro to a remote location via the communications port.

35. The remote user device of example 34, wherein the remote user device is one of a smart phone, a tablet computer, a laptop computer, and a personal computer.

36. The remote user device of any of examples 34 or 35, wherein the communications port is a wireless communications port.

37. The remote user device of example 36, wherein the controller transmits the new user defined macro to a remote server via the communications port.

38. A method of controlling a building control system, the method comprising:

displaying a plurality of one touch icons on a display, each of the plurality of one touch icons corresponding to one of a plurality of user defined macros that each comprise a user assigned action;

accepting selection of one of the plurality of one touch icons by a user; and executing the user defined macro that corresponds to the selected one of the plurality of one touch icons, including causing control signals to be sent to the building control system to implement the user selected action.

39. The method of example 38, further comprising:

allowing a user to customize the name of at least one of the one touch icons, and to display the customized name on the display when displaying the plurality of one touch icons on a display.

40. The method of any of examples 38 or 39, further comprising:

allowing a user to define one or more new one touch icons and corresponding user defined macro, and to display the one or more new one touch icons on the display for selection by the user.

41. The method of any of examples 38 to 40, wherein the displaying and accepting steps are performed on a remote user device.

42. The method of example 41, wherein the remote user device is one of a smart phone, a tablet computer, a laptop computer, and a personal computer.

43. A computer readable medium containing program instructions for facilitating a user of a wireless mobile device in controlling a building automation system, wherein execution of the program instructions by one or more processors of the wireless mobile device causes the wireless mobile device to carry out the steps of: displaying a plurality of triggers via a user interface of the wireless mobile device;

accepting a selection of a user selected trigger for the new user defined macro; displaying a plurality of actions via the user interface;

accepting a selection of a user selected action for the new user defined macro; storing the new user defined macro in a memory of the wireless mobile device; and

transmitting the new user defined macro to a remote location.

44. An HVAC controller comprising:

a housing mountable on a vertical surface;

a printed circuit board disposed within the housing, the printed circuit board including a light source operably secured to the printed circuit board;

a light guide secured relative to the printed circuit board such that light from the light source enters the light guide and propagates along the light guide, the light guide comprising:

a light input pocket configured to receive light from the light source; a bifurcated inlet section optically coupled to the light input pocket; a light guide body extending from the bifurcated inlet section; and an output surface extending along a rear facing surface of the light guide body such that light exiting the output surface is projected onto the vertical surface to which the housing is mountable.

45. The HVAC controller of example 44, wherein the light source comprises an LED.

46. The HVAC controller of any of examples 44 or 45, wherein the light source comprises a selectable colored LED. 47. The HVAC controller of any of examples 44 to 46, wherein the light guide further comprises a recess formed adjacent the bifurcated inlet section in order to reduce bright spots and to direct light into the light guide body.

48. The HVAC controller of any of examples 44 to 47, further comprising a reflective coating disposed on at least a portion of the light guide.

49. The HVAC controller of any of examples 44 to 48, wherein:

the housing includes a side surface extending away from the vertical surface to which the housing is mountable, wherein the side surface of the housing defines a circular cross sectional outer shape;

the light guide body has an annular shape that extends along and inside of the side surface of the housing; and

the light guide body has a height in a direction transverse to the output surface of the light guide that varies from a maximum proximate the bifurcated inlet section to a minimum at a point distant the bifurcated inlet section.

50. The HVAC controller of any of examples 44 to 49, wherein the light input pocket comprises a compound curved surface facing the light source, and wherein at least part of the light source is positioned within the light input pocket.

51. The HVAC controller of any of examples 44 to 50, wherein the light guide body is secured to the housing, with the output surface of the light guide facing the vertical surface to which the housing is mountable.

52. The HVAC controller of any of examples 44 to 51, wherein the bifurcated inlet section includes a first leg curving in a first direction and a second leg curving in a second opposite direction.

53. The HVAC controller of example 52, wherein the light guide body includes a first light guide body portion optically coupled to the first leg and a second light guide body portion optically coupled to the second leg.

54. An HVAC controller comprising:

a housing mountable on a vertical surface;

a printed circuit board disposed within the housing, the printed circuit board including a first light source operably secured on a first region of the printed circuit board and a second light source operably secured on a second region of the printed circuit board, wherein the second region is spaced from the first region; a light guide secured relative to the printed circuit board such that light from the first light source and light from the second light source enters the light guide and propagates through the light guide, the light guide comprising:

a first light input pocket configured to receive light from the first light source;

a first inlet section optically coupled to the first light input pocket; a second light input pocket configured to receive light from the second light source;

a second inlet section optically coupled to the second light input pocket;

a light guide body including a first leg extending along a first path between the first inlet section and the second inlet section, and a second leg extending in a second path between the first inlet section and the second inlet section; and an output surface directing light rearward and onto the vertical surface upon which the HVAC controller is mountable.

55. The HVAC controller of example 54, wherein the first light source and the second light source each comprise an LED.

56. The HVAC controller of any of examples 54 or 55, wherein the housing has a circular cross-sectional outer shape, and the light guide body has an annular shape that extends inside and along an outer perimeter of the housing, and the light guide body has a volume that decreases from the first inlet section and the second inlet section towards a region intermediate between the first inlet section and the second inlet section.

57. A method of operating an HVAC controller that controls one or more HVAC components, the HVAC controller having two or more different operating states, the method comprising:

identifying a first operating state of the HVAC controller from the two or more different operating states;

identifying a first color assigned to the first operating state, wherein at least two of the two or more different operating states have different assigned colors; and projecting the first color rearward and onto a surface upon which the HVAC controller is mountable while shielding the first color from being projected forward and away from the surface.

58. The method of example 57, further comprising:

identifying a second operating state of the HVAC controller, following the first operating state, wherein the second operating state is different from the first operating state;

identifying a second color that is assigned to the second operating state, wherein the second color is different from the first color; and

projecting the second color rearward and onto the surface upon which the

HVAC controller is mountable while shielding the second color from being projected forward and away from the surface.

59. The method of any of examples 57 or 58, wherein the first operating state corresponds to the HVAC controller causing an HVAC heating component to be energized.

60. The method of any of examples 57 to 59, wherein the second operating state corresponds to the HVAC controller causing an HVAC cooling component to be energized.

61. The method of any of examples 57 to 60, wherein a third operating state corresponds to the HVAC controller not causing either the HVAC heating component or the HVAC cooling component to be energized, and wherein in the third operating state, not projecting any color rearward and onto the surface upon which the HVAC controller is mountable.

62. The method of any of examples 57 to 61, wherein projecting the first color comprises projecting an annular light ring on the surface upon which the HVAC controller is mountable.

63. The method of example 62, wherein the annular light ring is substantially circumferentially uniform in intensity.

64. An HVAC controller having a back side mountable to a wall, comprising:

a first stationary housing component;

a second stationary housing component secured relative to the first stationary housing component; a rotatable ring situated between at least part of the first stationary housing component and at least part of the second stationary housing component;

the rotatable ring having a first side and a second opposing side, wherein the first side of the rotatable ring is configured to slide along a surface of the first stationary housing component when the rotatable ring is rotated, and the second side of the rotatable ring is configured to slide along a surface of the second stationary housing component when the rotatable ring is rotated;

the first side of the rotatable ring having an encoded surface that rotates with the rotatable ring; and

a stationary encoder facing the encoded surface of the rotatable ring, the stationary encoder configured to provide an output signal that is indicative of rotation of the rotatable ring that is used by the HVAC controller as an input.

65. The HVAC controller of example 64, wherein the encoded surface is encoded with an optical pattern, and the stationary encoder is an optical encoder.

66. The HVAC controller of any of examples 64 or 65, wherein the first side of the rotatable ring and the surface of the first stationary housing component collectively define a labyrinth seal to confine grease.

67. The HVAC controller of any of examples 64 to 66, wherein the surface of the second stationary housing component comprises one or more cantilevered dampeners.

68. The HVAC controller of any of examples 64 to 67, wherein the first side of the rotatable ring faces away from the back side of the HVAC controller, and the stationary encoder faces toward the back side of the HVAC controller.

69. The HVAC controller of any of examples 64 to 68, wherein the output signal of the stationary encoder indicates how far and in which direction the rotatable ring was rotated.

70. The HVAC controller of any of examples 64 to 69, wherein the output signal of the stationary encoder is used by the HVAC controller as an adjustment to a temperature setpoint.

71. The HVAC controller of any of examples 64 to 70, wherein the encoded surface comprises a reflective repeating pattern.

72. The HVAC controller of example 71, wherein the reflective repeating pattern varies with respect to rotational position on the encoded surface. 73. A programmable thermostat comprising:

a base plate mountable to a vertical surface;

a thermostat housing removably securable to the base plate;

a rotatable ring rotatably secured to the thermostat housing, the rotatable ring including an encoded surface facing away from the base plate and an optical pattern formed on the encoded surface;

an optical encoder secured within the thermostat housing, the optical encoder facing towards the base plate and positioned to read the optical pattern on the rotatable ring;

one or more cantilevered dampeners engaging the rotatable ring; and a controller disposed within the thermostat housing;

wherein rotation of the rotatable ring indicates a temperature setpoint change and the controller is configured to accept an input from the optical encoder indicating the temperature setpoint change.

74. The programmable thermostat of example 73, wherein the optical encoder provides an output signal that indicates how far and in which direction the rotatable ring was rotated.

75. The programmable thermostat of example 74, wherein rotation of the rotatable ring in a first direction is interpreted as a decrease in the temperature setpoint, and rotation in a second opposing direction is interpreted as an increase in the temperature setpoint.

76. The programmable thermostat of any of examples 73 to 75, wherein the optical pattern varies with respect to rotational position on the encoded surface.

77. The programmable thermostat of any of examples 73 to 76, wherein the thermostat housing defines a surface upon which a first side of the rotatable ring slides as the rotatable ring is rotated, and wherein the one or more cantilevered dampeners engaging a second opposing side of the rotatable ring.

78. The programmable thermostat of example 77, wherein the first side of the rotatable ring and the surface of the thermostat housing collectively define a labyrinth seal to confine grease.

79. A programmable thermostat mountable to a wall, comprising:

a thermostat housing; an annular shaped rotatable ring that is rotatably secured to the thermostat housing, the rotatable ring rotatable about a rotation axis;

the rotatable ring including an optical pattern on an encoded surface, wherein the encoded surface extends inward toward the rotation axis;

an optical encoder secured within the thermostat housing, the optical encoder positioned to read the optical pattern on the encoded surface;

the thermostat housing defining a first surface upon which a first side of the rotatable ring slides as the rotatable ring is rotated about the rotation axis, and further defining a second surface upon which a second opposing side of the rotatable ring slides as the rotatable ring is rotated about the rotation axis;

a controller disposed within the thermostat housing; and

wherein the controller is configured to accept an input from the optical encoder indicating a setpoint change.

80. The programmable thermostat of example 79, wherein the first side of the rotatable ring and the first surface of the thermostat housing collectively define a labyrinth seal to confine grease.

81. The programmable thermostat of example 79, wherein the second surface of the thermostat housing comprises one or more dampeners.

82. The programmable thermostat of example 82, wherein the one or more dampeners comprise two or more cantilevered dampeners.

83. The programmable thermostat of any of examples 79 to 82, wherein the optical pattern varies with respect to rotational position on the encoded surface.

Those skilled in the art will recognize that the present disclosure may be manifested in a variety of forms other than the specific embodiments described and contemplated herein. Accordingly, departure in form and detail may be made without departing from the scope and spirit of the present disclosure as described in the appended claims.

Claims

What is claimed is:

a user interface;

a controller operatively coupled to the user interface and the memory and configured to accept a selection of one of the two or more predetermined geo-fences via the user interface; and

2. The mobile device of claim 1, wherein the remote device is a remote server, and the controller is configured to report when the location of the mobile device crosses the selected one of the two or more predetermined geo-fences to the remote server via a wireless communication port and, optionally, the remote server, in response to receiving a report that the location of the mobile device crossed the selected one of the two or more predetermined geo-fences, notifies a building automation controller in the home of the user of the mobile device to change a setting.

3. The mobile device of claim 2, wherein the setting comprises a temperature set point or a lighting setting.

4. The mobile device of any one of claims 2 or 3, wherein the change in the setting is reported back to the mobile device, and the controller of the mobile device is configured to display the changed setting on the user interface of the mobile device.

5. The mobile device of any one of claims 1 to 4, wherein a first one of the two or more predetermined geo-fences defines a first sized region and a second one of the two or more predetermined geo-fences defines a second sized region, wherein the second sized region is at least 25% greater than the first sized region.

6. The mobile device of any one of claims 1 to 5, wherein the controller is further configured to accept a selection of another one of the two or more predetermined geo-fences via the user interface, and to report when the location of the mobile device crosses the selected another one of the two or more predetermined geo- fences to a remote device.

7. The mobile device of any one of claims 1 to 6, wherein the controller is configured to not report when the location of the mobile device crosses unselected ones of the two or more predetermined geo-fences.

8. A building automation system servicing a user's building, the building automation system comprising:

a memory for storing a geo-fence that defines a region about the user's building;

a controller operatively coupled to the memory, the controller configured to identify when a user's mobile device crosses the geo-fence, and in response, cause an adjustment to a temperature set point of the building automation system;

the controller further configured to:

9. The building automation system of claim 8, wherein the indication from the user that the geo-fence is too sensitive is in response to a query presented to the user, optionally via a mobile device of the user, optionally via a web page.

10. The building automation system of one of claims 8 or 9, wherein the indication from the user that the geo-fence is not sensitive enough is in response to a query presented to the user.

1 1. A mobile device having location services for determining a location of the mobile device, the mobile device comprising:

a user interface;

a controller operatively coupled to the memory and the user interface, the controller configured to:

activate the first geo-fence during the first scheduled time period, and to identify when the mobile device crosses the first geo-fence during the first scheduled time period;

12. The mobile device of claim 1 1, wherein the remote device is a remote server, and the controller is configured to report when the location of the mobile device crosses the first geo-fence during the first scheduled time period and when the location of the mobile device crosses the second geo-fence during the second scheduled time period to the remote server via a wireless communication port.

13. The mobile device of claim 12, wherein the remote server, in response to receiving a report that the location of the mobile device crossed the first geo-fence during the first scheduled time period or that the mobile device crossed the second geo-fence during the second scheduled time period, notifies a building automation controller in the user's building to change a setting.

14. A computer readable medium containing program instructions for facilitating a user of a wireless mobile device in configuring a wireless HVAC controller, wherein execution of the program instructions by one or more processors of the wireless mobile device causes the wireless mobile device to carry out the steps of:

storing two or more predetermined geo-fences that each define a different sized region about a home of a user of the mobile device;

displaying on a screen of the mobile device to accept a selection of one of the two or more predetermined geo-fences; and

15. A computer readable medium containing program instructions for facilitating a user of a wireless mobile device in configuring an HVAC controller, wherein execution of the program instructions by one or more processors of the wireless mobile device causes the wireless mobile device to carry out the steps of: storing a geo-fence in a memory of the wireless mobile device;

displaying on a display of a user interface of the wireless mobile device a representation of the stored geo-fence superimposed on a geographical map;

allowing a user to indicate a change to the stored geo-fence via the user interface of the wireless mobile device;

storing the changed geo-fence in the memory of the wireless mobile device; and

reporting to a remote device an indication of when a location of the wireless mobile device crosses the changed geofence.

16. A computer readable medium containing program instructions for facilitating use of an HVAC controller using a server, wherein execution of the program instructions by one or more processors of the server causes the server to carry out the steps of: storing a geo-fence;

outputting for display a representation of the stored geo-fence superimposed on a geographical map;

accepting input that indicates a change to the stored geo-fence;

outputting for display a representation of the changed geo-fence superimposed on the geographical map;

storing the changed geo-fence; and

outputting the changed geo-fence for receipt by a mobile device.