TW201640459A - Wireless detector applications configuration system - Google Patents

Abstract

The present invention provides a programmable wireless sensors utility system, comprising a processing device and a plurality of sensors. The sensor may be provided with or without one or more sensor modules, to provide a sensor ID and/or at least one sensing result. The processing device receives signals from the sensors, determines pursuant to at least one inference rule and provides an action instruction. A graphic programming user interface is provided for users to input incident parameters and action parameters, to form a particular inference rule.

Description

Combined wireless sensor application system

The present invention relates to a combined wireless sensor application system, and more particularly to a wireless sensor application system that can provide different applications by sensing the sensing results of a plurality of sensors by a user. The invention also discloses a setting method and means for the application system.

In recent years, various detectors manufactured using MEMS (microelectromechanical system) technology have been widely used in industrial, commercial, and daily life applications to provide applications for performing monitoring and/or control functions. These detectors provide various electrical parameters such as voltage, current, frequency, etc. in wired or wireless manner, and input various measurement or application circuits to represent equivalent physical, chemical, biological and other measurement parameters. Measurement results or further applications. These detectors are small, consume less power, and often provide wireless communication capabilities. The combination of different detection parameters and provides complex monitoring and control functions. However, although the existing detectors are reduced in size, most of them can only provide a small number of detection functions. If a particular monitoring or control function requires the use of multiple detection parameters.

In order to further reduce the size of the detection device and improve the manufacturing efficiency, the operator attempts to combine different types, that is, detectors for measuring different parameters, on a single substrate, for example, a multi-detection element of a single wafer.

EP 2 759 802 A2 discloses an integrated multi-axis MEMS inertial sensing device in a single chip package. The MEMS device includes a three-axis accelerometer and a plurality of gyroscopes that are stacked on a substrate. The sensing device can be used to provide a variety of sensing functions.

US Patent No. 20140300490 A1 discloses a wearable electronic device having a memory attached processor coupled to a body area network (BAN) and connectable to a wide area network. The device has a firmware that can be connected to a wide area network to download applications and settings, as well as upload data to the server.

WO 2014143812 A2 discloses a multimodal fluid condition detector platform and system for simultaneously measuring various parameters in a liquid circulation system in a plurality of modalities. Suitable circulation systems include automotive reciprocating engines and vehicle transmissions. The following various measurement modes are disclosed in the embodiments: temperature differential comparison; magnetic differential comparison; pole differential comparison; resistance differential comparison and absorption differential comparison.

US2014264657 provides a design for accumulating multiple detectors on a single semiconductor substrate. The invention discloses a single crystal integrated composite detector. In the embodiment of the patent, a plurality of detectors can be formed on a single substrate, and include, for example, a magnetometer, an infrared detector, an accelerometer and a hygrometer.

US 2014-0300490 discloses a wearable multi-function detector in which an APP for controlling and applying each detector can be downloaded by a server.

While the prior art can provide a technique for accumulating a plurality of detection functions on a single substrate, these needle detectors can be used in daily life or in the industry, and can only be produced on a single product to provide a single use. Even though smart phones and tablets are widely used today, various micro-detector-based application software is also popular in the city, but it is usually only available for electronic products that have already formed application products. It is a waste of micro-detector products that combine multiple detection functions on a single substrate.

Therefore, it is indeed necessary in the industry to provide a combined wireless sensor application system capable of fully utilizing the functions of the existing micro-detector and providing daily life or industrial and commercial applications.

The present invention provides a system that includes a processing device and a plurality of sensors. The sensor has one or more sensing modules, and a signal transmission module is configured to send a sensor code data and a sensing result of the sensing module, and a power module for providing The signal transmission module and the power consumption of the sensing module should be used. The plurality of sensing modules comprise at least one selected from the group consisting of: an accelerometer, a magnetometer, a gyroscope, a rhythm sensor, a satellite locator, a sound sensor, an optical sensor, and a temperature. Sensors, vibration sensors, barometric sensors, surface pressure sensors, etc. The signal transmission module can transmit a sensor code data and/or at least one sensing result.

The sensor may further include a processing module and a signal receiving module. The processing module includes a logic circuit for calculating a detection result according to the at least one sensing result, and transmitting the detection result via the signal transmission module. The signal receiving module can receive an external signal to provide the processing module for processing.

In a preferred embodiment of the invention, a particular number of sensors does not provide a sensing function, but only provides sensor code signal information for transmission to the outside world.

The processing device has a sensor signal receiving module for receiving signals transmitted by the sensor; a communication module for connecting with an external electronic device for exchanging data; and a processing module for Determining according to at least one determination rule, and outputting an action instruction via the communication module; a memory for storing the code of the plurality of sensors and the at least one determination rule; and a power module for supplying the sensing The power of the module and the signal transmission module. The processing module of the processing device may determine an action according to the at least one event according to the at least one determining rule, and output an action instruction. That is, the judgment rule includes at least one event and an action judged by the result of the inference. The decision rule may additionally include a logical relationship between most events. The logical relationship may include: "and", "or" and "and".

In a preferred embodiment of the present invention, the event may be a sensor code signal and/or a sensing result and/or a detection result information provided by a sensor. Specifically, the event may be a result of a determination based on a threshold of one or more sensor codes and/or sensor sense/detection parameters. The parameters may include, for example, a Received Signal Strength Indication (RSI), a gravity value, an angular velocity value, a barometric pressure value, a brightness, a temperature, a humidity, a sound, a timer value, and the like.

In a preferred embodiment of the present invention, the action inferred by the determination rule may include: means for alerting the user or triggering another module, such as an alarm bell (including a sound size, a rhythm or a frequency setting value), and transmitting SMS (including sending object code and sending content), vibration (including amplitude, rhythm), display screen display or warning light flashing (including display content), emitting odor, etc. It may also include actions to generate data, such as photographing, recording, recording, recording data, and the like.

The processing device can further include a setting module, the setting module providing a user interface for the user to input parameters included in the specific determination rule. The parameter includes at least one event parameter and one action parameter, and may include a logical relationship parameter between most events. The logical relationship may include: "and", "or" and "and".

In a preferred embodiment of the invention, the user interface includes a graphical interface and provides a plurality of event representative displays for the user to select; and provides a plurality of action representative displays for the user to select. The user interface can provide a majority of the inter-event logical relationship representation display for the user to select. The user interface can provide a judgment rule field for the user to edit the judgment rule name. Most judgment rules can be stored in memory. The user interface can provide a selection interface for the user to activate or deactivate specific determination rules.

The processing device of the present invention can be connected to a mobile module, such as a portable communication device, to complete a communication link or network communication link according to the action command output by the processing module; and can be in a communication link or network After the communication is linked, a specific request is made and/or specific information is provided. The action module can also include a camera module to perform a camera operation according to the action command output by the processing module. The action module can also include a display module for displaying specific information according to the action command output by the processing module. The display module can be an image display module, a sound display module or a combination thereof. The action module can also include a robot module to perform a mechanical operation based on the action command output by the processing module. In a preferred embodiment of the present invention, the mobile module can be a mobile phone, a smart phone, a personal digital assistant, a tablet computer, an Arduino interactive device, a portable device such as a Raspberry Pi. In such an example, the processing device can be built in the portable device, and utilizes the network communication module, the signal transmission module, the signal receiving module, the processing module, the memory, and the power supply of the portable device. Modules, etc.

Under the design of the present invention, the user can design the required application by using the event parameters, the action parameters provided by the processing device or the logic parameters of most events. Make good use of most of the sensors provided by the system to combine all the required detection/action functions.

The setting module of the processing device can be implemented in the form of a software program, and is downloaded into a portable device by means of an application software, and combined with each operation module of the portable device to form the processing device.

The above and other objects, features and advantages of the present invention will become more apparent from

1 shows a system diagram of a combined wireless sensor application system of the present invention. As shown, the combined wireless sensor application system of the present invention mainly comprises: a processing device 31, a plurality of sensors 11-13 and a plurality of simple sensors 21-26.

In the example of Fig. 1, three sets of sensors 11-13 and six sets of simple sensors 21-26 are shown. However, the number of the sensors 11-13 and the simple sensors 21-26 is not limited by any technical means. More or less than the above number of sensors and simple sensors, and combinations thereof, may be suitable for use in the present invention. Of course, the number of sensors should not be too large, so as not to complicate the system and affect its control and application.

The main function of the sensor 11-13 is to provide a code signal, as well as to sense various physical, chemical, biological properties and their changes, and the results of the sensing. The main function of the simple sensor 21-26 is to provide a code signal and does not provide any physical, chemical or biological sensing results. The purpose of providing the simple sensor 21-26 is to save the manufacturing cost of the sensor. In other words, the simple sensor 21-26 does not need to have any sensing module, and only needs to have the transmission capability of the sensor code signal. Although the simple sensor 21-26 has no sensing function, it is still referred to as a sensor in the following description. The purpose is to illustrate the convenience; the simple type sensors 21-26 can also be replaced by the sensors 11-13, since their functions are all provided by the sensors 11-13.

Figure 2 shows a block diagram of the sensor 11-13. As shown in the figure, in order to provide the above functions, each of the sensors 11-13 can have a plurality of sensing modules 111a-111d, a signal transmitting module 112 and a power module 113. Each of the sensing modules 111a-111d provides at least one sensing function. In a preferred embodiment of the present invention, each of the sensing modules 111a-111d provides at least one selected from the group consisting of an accelerometer, a magnetometer, a gyroscope, a heart rate sensor, a satellite locator, and a sense of sound. Detectors, optical sensors, temperature sensors, vibration sensors, barometric sensors, surface pressure sensors, etc. Since the combined wireless sensor application system of the present invention aims to provide a user with a combination of sensing and application relationships, the sensor 11-13 is suitable for providing various sensing functions. However, in certain embodiments, each of the sensors 11-13 may only provide a single sensing function, and the sensing functions provided by different sensors may be the same or different. In other embodiments, the sensor 11-13 only needs to be able to provide a sensor code signal, ie, for use. In other words, the sensor 11-13 preferably provides one or more of the above sensing functions to enable the user to combine and provide an unlimited variety of applications. In general, a sensor capable of providing an accelerometer detection function can be supplied to a user for designing a variety of uses, as shown in the following embodiments.

Sensing modules as described above, such as accelerometers, magnetometers, gyroscopes, heart rate sensors, satellite locators, sound sensors, optical sensors, temperature sensors, vibration sensors, barometric pressure Detectors, surface pressure sensors, etc., are known and are commercially available electronic components. In general, a miniature sensing module fabricated using MEMS technology can meet the needs of the present invention.

In addition, commercially available miniature or other types of sensor elements provide wireless communication capabilities in addition to the sensing modules described above. Such miniature or other types of sensor elements, typically equipped with short-range wireless communication modules, for transmitting sensed results to a particular reception via conventional short-range wireless communication channels, such as Bluetooth channels, radio channels, and the like. end. The wireless communication module or short-range wireless communication module can serve as the signal transmission module 112 of the sensor 11-13 in the present invention. Other components that provide wireless communication, particularly short-range wireless communication functions, using known techniques can also be applied as the signal transmission module 112.

As for the power module 113, a power module generally used in a micro sensor or a radio frequency identification (RFID) chip can be applied to supply the sensing module 111 and the signal transmission module 112 with necessary power. Generally, the power module 113 applied to the sensors 11-16 may include a battery and a power circuit (none of which are shown). The battery can store a considerable amount of charge and be charged using, for example, wireless charging technology. The power saving circuit controls the power supply of the battery, and stops the battery power supply when it is not necessary. The power saving circuit can also control the timing detection of the sensing module 111, and control the signal transmitting module 112 to periodically transmit the sensor code signal and/or the detection result signal of the sensing module 111. In a particular example, the power save circuit can still accept an external wake-up signal to begin powering the battery. The architecture, control, application, and the like of the power module 113 are all in the prior art. The details are not to be described here.

The sensor 11-13 may further include a processing module 114 and a signal receiving module 115. The processing module 114 includes a logic circuit for calculating a detection result according to the at least one sensing result and transmitting the detection result. For example, the sensing module 111 may be an accelerometer. The processing module 114 may include a microcontroller, and when the reading value of the accelerometer exceeds a threshold, it is determined that the detection signal should be sent by the transmitting module 112, and the reading value of the accelerometer is sent. For another example, the sensing module 111 may be a thermometer. The processing module 114 may include a microcontroller, and when the reading value of the thermometer exceeds a threshold, it is determined that the detection signal should be sent by the transmitting module 112, and the reading value of the thermometer is sent. Other sensing result processing and application methods can be set by the operator according to the requirements of the combined wireless sensor application system application. The processing module 114 can typically be implemented by a microcontroller or microprocessor, or a simple variation thereof. Technical details are not to be repeated here. However, when the sensor module 11-13 is provided with the processing module 114, the control of the power module 113 can also be achieved by using the processing module 114, which is self-evident.

The signal receiving module 115 can be any type of wireless signal receiving component for receiving signals transmitted by the external device and providing the processing module 114 for processing. The external signal may include a wake-up signal, a control signal, or a piece of data. The data may be data representative of control parameters used to set the relevant functions of the sensors 11-13, such as the aforementioned threshold values.

The sensors 11-13 having the above architecture and functions can operate in a variety of modes. For example: 1. Timely signal the sensor code representing the specific sensor 11-13. 2. Timely detection of one or more physical, chemical or biological quantities and a signal representative of the detection result. 3. Upon receipt of a particular command, a sensor code signal representative of the particular sensor 11-13 is issued. 4. Upon receipt of a specific command, detect one or more physical, chemical or biological quantities and signal a representative of the detection. 5. Signal the sensor code when a specific physical quantity, chemical quantity, or biomass is sensed. 6. When a specific physical quantity, chemical quantity, or biomass is sensed, a sensor code signal and a signal representative of the detection result are issued.

Other working modes can be set or changed by the operator according to the requirements of the combined wireless sensor application system application.

The composition and function of the simple type sensors 21-26 are similar to those of the sensors 11-13. The main difference is that the simple sensor 21-26 will only emit its sensor code signal for reception by an external device, such as the processing device 31. In addition to the code information representing the specific sensor, the sensor code signal may determine the distance between the sensor and the external signal from the strength of the sensor code signal, as a reference for the judgment process. .

FIG. 3 shows a block diagram of the processing device 31. As shown in the figure, the processing device 31 has a sensor signal receiving module 311, a communication module 312, a processing module 313, a memory 314, and a power module 315. The sensor signal receiving module 311 is a sensor code signal for receiving the simple type sensor 21-26, and a sensor code signal of the sensor 11-13, and a sensing signal thereof or Detect signals.

According to the design of the present invention, the processing module 313 of the processing device 31 can determine an action according to at least one event according to at least one determination rule, and output an action instruction. In an embodiment of the invention, the memory 314 can be used to store a majority of the decision rules. However, generally, for the processing device 31, only one judgment rule is applied at the same time, and the remaining judgment rules are all in an idle state.

In a preferred embodiment of the invention, the individual decision rules include at least one event and an action triggered by the event. In a particular embodiment, the determination rule may further include a logical relationship between a majority of events, such as an "or", "or" or "and" relationship between events. Other logical relationships that can be used include: "No", "+", "-", "*", "/", "%", "!", "<<", ">>", ">", "<", ">=", "<=", "==", "!=", etc.

In a preferred embodiment of the present invention, the event may be a sensor code signal and/or a sensing result and/or a detection result information provided by a sensor. Specifically, the event may be a result of a determination based on a threshold of one or more sensor codes and/or sensor sense/detection parameters. The parameters may include, for example, a Received Signal Strength Indication (RSI), a gravity value, an angular velocity value, a barometric pressure value, a brightness, a temperature, a humidity, a sound, a timer value, and the like. Measurement parameters or values for other applications may also be applied to the present invention, such as: surface pressure value, magnetic force, pH, acceleration, gyroscope reading, heart rate sensor reading, satellite locator reading, vibration sensing. Read value, curvature, alcohol concentration, muscle strength, strength, ultrasonic value, infrared, ultraviolet, current, oxygen concentration, color, displacement sensor reading, radiation value, smell, gesture, pulse, etc.

In a preferred embodiment of the present invention, the action inferred by the determination rule may include: means for alerting the user or triggering another module, such as an alarm bell (including a sound size, a rhythm or a frequency setting value), and transmitting SMS (including sending object code and sending content), vibration (including amplitude, rhythm), display screen display or warning light flashing (including display content), emitting odor, etc. It may also include actions to generate data, such as photographing, recording, recording, recording data, and the like.

In particular, the particular decision rule may include, for example: 1. Upon receipt of the first sensor sense signal (event 1), instruct a mobile phone to dial (action one). 2. When it is determined that the sensor code strength of the first sensor is greater than a threshold (event 1), instructing a robot module to open the door (action one). 3. Instructing a camera upon receipt of the first sensor sensing signal (Event 1) and (logical relationship 1) determining that the sensor code strength of the second sensor is less than a threshold (Event 2) The module camera (action one) and (logical relationship 2) instructs a display module to display the illuminated image (action 2). 4. When the first sensor sensing signal (event 1) is received, if it is not (and is not) determined that the sensor code strength of the second sensor is greater than the threshold (event 2), then the indication is A robotic module opens the door (action one).

The above example is only to illustrate the possible applications of the above "event", "action" and "logical relationship".

To perform the determination rule, the processing module 313 can use, for example, a microcontroller to transmit information according to a specific sensor received by the sensor signal receiving module 311, such as a sensor code signal, sensing. The result and the detection result are calculated by the activation judgment rule at that time, and the judgment result is obtained, and the action instruction is issued. In some examples, the sensor code signal, the sensing result, the detection result, and the like, and the time of receipt, and the action instruction and the time of issuance may be stored in the memory 314 for review or further application. The memory 314 can be any commercially available memory element and can include non-volatile memory elements. In addition, the power module 315 can also be any commercially available power supply component, typically including a rechargeable battery to provide the necessary power to the various components of the processing device 31. The power module 315 can also be optionally included with a power control to plan and conserve power.

In order to execute the action command determined by the processing module 313, the processing device 31 of the present invention can be connected to a mobile module 316 via the communication module 312, such as a communication device, a portable communication device, and a network communication device. . Please refer to Figure 1. The communication module 312 performs a communication link or a network communication link according to the action command output by the processing module 313, and issues a specific request and/or provides specific information after the communication link or the network communication link. . The request may generally include instructing a communication device, a portable communication device or a network communication device to make a call and issue voice or data information; instructing a smart phone to send an APP message; instructing an internet device to link to a website, Provide voice or data materials, etc.

In addition, the action module 316 can also include a camera module 317 to perform a camera operation according to the action command output by the processing module 313. The action module 316 can also include a display module 317 for displaying specific information according to the action command output by the processing module 313. The display module 317 can be an image display module, a sound display module, or a combination thereof. The action module 316 can also include a robot module 318 for performing a mechanical operation, such as the aforementioned door opening operation, according to the action command output by the processing module 313.

In a preferred embodiment of the present invention, the action module 316 can be a portable device such as a mobile phone, a smart phone, a personal digital assistant, or a tablet computer. In this example, the processing device 31 can be fully built into the portable device, and the short-distance communication module, the network communication module, the signal transmission module, and the signal receiving module of the portable device 316 are utilized. The processing module, the memory, the power module, and the like perform operations such as receiving, judging, communicating, and performing actions of the sensor. In this preferred embodiment, the processing device 31 can be implemented in the form of a software program (APP) and downloaded into the portable device 316 in a manner of application software, in combination with each operation mode of the portable device 316. The group is formed to form the processing device 31.

In order to provide the combined application function of the combined wireless sensor application system of the present invention, the processing device 31 may further include a setting module 319. The setting module 319 provides a user interface 32 for the user to enter parameters included in a particular decision rule. That is, the event parameters and action parameters required by the above judgment rules, and the logical relationship parameters between most events.

In the application example of the present invention of FIG. 1, the user interface 32 includes a graphical interface and provides a user to input each of the event parameters, the action parameters, and the logical relationship parameters in a selected manner. 4-6 shows a set of user interfaces suitable for use in the setting module 319 of the present invention. The content displayed by the user interface of the group is an application example of the first embodiment of the present invention.

As shown in Figures 4-6, the graphical interface 32 provides a variety of event representative displays for the user to select; a variety of action representative displays are also provided for the user to select. The user interface 32 can provide a majority of the inter-event logical relationship representation display for the user to select. In addition, the user interface 32 can provide a judgment rule field for the user to edit the judgment rule name. Most judgment rules can be stored in memory. The user interface can provide a selection interface for the user to activate or deactivate specific determination rules.

In detail, Figure 4 shows the user interface of the four application layers. 4a shows the outermost user interface, including three types of judgment rule names and whether each judgment rule is activated. The upper field is the selection field of the "new" (+) rule, and the lower field is the control field of the apply (apply). When selecting the new function, skip to the confirmation interface on the right (Fig. 4b). When the activation is selected, the selected judgment rule will be ticked to the right, and the remaining judgment rules will be inactivated. Of course, in some applications, the processing device 31 may also allow for the activation of multiple decision rules without being limited to a single rule.

After selecting any of the judging rules in the interface of Figure 4a, the interface jumps to the left event logic relationship parameter input interface (Fig. 4c). The interface displays the number of event names and the logical relationships between them, mainly "and" and "or", for the user to enter the event name and its logical relationship parameters. Similar to Figure 4a, the upper field of the event field is the selection field of the "new" (+) event, and the lower field is the input field of the confirmation (OK). When the user selects the new function, skip to the confirmation interface on the upper left (Figure 4d).

After the user selects an event name, the user interface enters the condition setting layer interface. Figure 5 shows the user interface of the layer. Among them, Figure 5a shows the main interface of the condition setting layer. At the top of the middle main field, a selection function that adds (adds) and deletes specific conditions is provided. The sensor name is displayed above the main field. In the example in the figure, the display name for the condition is "Phone", which may represent the sensor attached to a smart phone.

The main field in the middle of Figure 5a includes the sensing module/function name displayed from the left to right first field for the user to select. The sensor shown in the figure can provide sensing functions such as signal intensity (RSSI), X-direction acceleration (F_X), Y-direction acceleration (F_Y), Z-direction acceleration (F_Z), distance, and the like. The second field provides selection of reading conditions. The figure shows that the optional condition parameters are greater than, less than, and equal to three. The third field is the reading value setting column, which also provides the user to adjust the setting value by moving the label. This field can be provided with a numerical display to assist the user. The fourth and fifth columns select fields for logical relationships, and mainly provide two kinds of conditional parameters, "and" and "or".

When the user enters the completion condition setting, select "OK" and the condition parameter is stored in the judgment rule. At the same time, the user interface is converted into a judgment rule description interface (Fig. 5b), and the set conditions are displayed in words for the user to confirm. In this way, the condition parameter setting of "event" is completed. As can be seen from the figure, for a single judgment rule, the event condition that can be set is not limited to one. And the logical relationship between the various conditions can also include "and" and "or". In the embodiment of the present invention, the following event/condition parameters may be provided for the user to apply: Received signal strength indication (RSI), gravity value, angular velocity value, barometric pressure value, brightness, temperature, humidity, sound, The value of the timer, etc. The parameters provided may also include thresholds for the various parameters described above as well as other parameters. Figures 6a and 6b show the "action" and "exceptional conditions" textual descriptions that can be entered using a similar selection interface. Using a selection interface similar to that of Figure 5a, the user can set the "action" parameter of the decision rule in a selective manner. In the embodiment of the present invention, the following actions are mainly provided for the user to apply: means for reminding the user or triggering another module, such as an alarm bell (including parameters such as sound size, rhythm or frequency setting value), and sending a short message. (including parameters such as the transmission target code and transmission content), vibration (including amplitude amplitude, rhythm and other parameters), display screen display or warning light flashing (including display content and other parameters), emit odor and so on. It may also include actions to generate data, such as photographing, recording, recording, recording data, and the like.

After the user inputs the action parameters in the interface, select "OK" and the action parameters are stored in the judgment rule. At the same time, the user interface is converted into a judgment rule description interface (Fig. 6a), and the set conditions and actions are displayed in text for the user to confirm. In this way, the parameter setting of "action" is completed.

Similarly, a user interface similar to that of Figure 5a can be utilized for the user to enter "exception" condition parameters. The so-called exception condition parameter represents an event that stops a specific action or does not perform a specific action. The exception condition parameters are roughly the same as the items and properties shown in Figure 5a. Figure 6b shows that after the exception condition input interface is selected as "OK", the exception condition parameter is stored in the judgment rule, the user interface is converted into a judgment rule description interface, and the set conditions and actions are displayed in text. The status with the exception condition.

The code, name, and the like of each of the sensors 11-13 and the simple sensors 21-26 can be set at the factory, or a user interface can be provided for the user to set and change. This type of application is already a conventional technique and need not be described here.

The application mode of the combined wireless sensor application system of the present invention will be described below by way of example.

Embodiment 1 - Mother Peeking Diary FIG. 4-6 shows the judgment condition setting interface of the first embodiment of the present invention. When the combination of the combined wireless sensor application system of the present invention is applied to detect the mother's peek at the daughter's diary, the daughter may first set a judgment rule in the setting module of the present invention, and the name is Diary, as shown in FIG. 4a. The event name of the judgment rule is set to Rule 1 (Fig. 4c), and the applicable sensor name is Phone (Fig. 5a). And in the event parameter setting interface of FIG. 5a, the condition for defining the event is: when the phone's X-direction acceleration is greater than the set value of 3, an action command is generated (FIG. 5b). The action instruction sends a specific text message to indicate the smart phone dialed by the judgment module (Fig. 6a). At the same time, in order to avoid malfunction, the daughter does not transmit the text message when the signal strength of another sensor (named Band) is greater than -10dB (Fig. 6b). When applied, the sensor named Phone may be attached to the daughter's diary and contain an accelerometer. The sensor, called Band, may be attached to the daughter and is a simple sensor. The processing device 31 can measure the signal strength from the sensor code signal sent from the simple sensor. Therefore, when the daughter reads the diary herself, there will be no malfunction.

Embodiment 2 - Open Door Camera FIG. 7-8 shows a judgment condition setting interface of the second embodiment of the present invention. When the combined wireless sensor application system combination of the present invention is applied to detect a hollow door, the homeowner can first set a judgment rule in the setting module of the present invention, and the name is a Door Camera, as shown in FIG. 4a. And set the event name of the judgment rule to be, the applicable sensor name is Phone (Fig. 7). And in the event parameter setting interface of FIG. 7, the condition for defining the event is: when the phone's X-direction acceleration is greater than the set value of 3, and the phone's distance is less than the set value of 10, an action command is generated. The action instruction is to photograph the smart phone built by the judgment module (Fig. 8). At the same time, in order to avoid malfunction, the homeowner and set another sensor (named Band) with a signal strength greater than -10dB, do not perform photography (Figure 8). When applied, the sensor named Phone may be attached to the door and contain an accelerometer. The exception condition distance value is used to confirm that the sensor is attached to the door. The sensor, called Band, may be attached to the owner and is a simple sensor. The processing device 31 can measure the signal strength from the sensor code signal sent from the simple sensor. Therefore, when the owner opens the door himself, there will be no malfunction.

Example 3 - Are things brought together? 9-10 show a judgment condition setting interface of the third embodiment of the present invention. The combination of the combined wireless sensor application system of the present invention is used to detect whether the user forgets when the user goes out. The user can first set a judgment rule in the setting module of the present invention, and the name is Fife Bring, as shown in FIG. 4a. Show. And set the event name of the judgment rule to Rule 1, the applicable sensor name is Band A, and the logical relationship between Tag 1 and Tag 2 (Fig. 9) is "OR". And in the event parameter setting interface, the condition for defining the event is: when any one of Band A, Tag 1 or Tag 2 has a signal strength greater than -10 dB, an action command is generated. The action command is used to dial the smart phone that is instructed by the judgment module to sound an alarm (Fig. 10). At the same time, it is set that when the signal strength of Band A, Tag 1 and Tag 2 is more than -10 dB at the same time, the action command is not generated (Fig. 10). When applied, the sensor called Band A may be attached to the user's door. The sensors named Tag 1 and Tag 2 may be attached to the user's key and the other may be attached to the user's wallet, all of which are simple sensors. The processing device 31 can measure the signal strength from the sensor code signal sent from the simple sensor. Therefore, unless the user goes out (Band A RSSI > -10), the key and wallet are carried on the body (Tag 1 RSSI > -10 and Tag 2 RSSI > -10), the smart phone will send out an alarm signal.

Under the design of the present invention, the user can design the required application by using the event parameters, the action parameters provided by the processing device 31, or the logical relationship parameters between most events. Make good use of most of the sensors provided by the system to combine all the required detection/action functions. The processing device 31 or its determination module 313 can be built into a smart phone by a software application type, and provides a simple graphic selection interface for the user to construct various detector applications.

11-13‧‧‧Sensor
21-26‧‧‧Simple sensor
31‧‧‧Processing device
32‧‧‧User interface
111‧‧‧Sensing module
111a-111d‧‧‧Sense Module
112‧‧‧Signal transmission module
113‧‧‧Power Module
114‧‧‧Processing module
115‧‧‧Signal receiving module
311‧‧‧Sensor signal receiving module
312‧‧‧Communication module
313‧‧‧Processing module
314‧‧‧ memory
315‧‧‧Power Module
316‧‧‧Action Module
317‧‧‧ camera module
318‧‧‧Robot module
319‧‧‧Setting module

1 shows a system diagram of a combined wireless sensor application system of the present invention. Figure 2 shows a block diagram of the sensor 11-13. FIG. 3 shows a block diagram of the processing device 31. Figure 4 shows a user interface suitable for use in the four application layers of the present invention. Figure 5 shows the user interface of its condition setting layer. Figures 6a and 6b show the "action" and "exceptional conditions" textual descriptions entered using the selection interface. 7-8 show a judgment condition setting interface of the second embodiment of the present invention. 9-10 show a judgment condition setting interface of the third embodiment of the present invention.

31‧‧‧Processing device

32‧‧‧User interface

311‧‧‧Sensor signal receiving module

312‧‧‧Communication module

313‧‧‧Processing module

314‧‧‧ memory

315‧‧‧Power Module

316‧‧‧Action Module

317‧‧‧ camera module

318‧‧‧Robot module

319‧‧‧Setting module

Claims (14)

A combined wireless sensor application system includes a processing device and a plurality of sensors separated from the processing device; wherein: the sensor has: a signal transmission module for sending a sensor code data; And a power module for supplying power to the signal transmission module; the processing device has: a sensor signal receiving module for receiving signals transmitted by the sensor; and a communication module for Connecting with an external electronic device to exchange data; a processing module for determining, according to at least one determination rule, and outputting an action instruction via the communication module; the determining rule includes at least one event and a corresponding action; a memory for storing the code of the plurality of sensors and the at least one determining rule; and a power module for supplying power to the sensing module and the signal transmitting module; the combined wireless sense Detector should The system further provides a setting module for the user to input the parameters included in the specific judgment rule to form the judgment rule, which is stored in the memory of the processing module; the setting parameter provided by the setting module includes at least one event parameter. And an action parameter; wherein the event used by the determining rule comprises a logical inference result according to the sensor transmitting signal received by the sensor signal receiving module, and the event parameter provided by the setting module includes a sense of the sense The logical inference result of the sensor transmitting signal received by the detector signal receiving module. The combined wireless sensor application system of claim 1, wherein at least one of the sensors further comprises one or more sensing modules for sensing one or more sensing parameters; The signal transmission module can be additionally used to send information including the sensing result of the sensing module; and the power module further supplies power for the signal transmission module. The combined wireless sensor application system of claim 1 or 2, wherein the determination rule further includes a logical relationship between a plurality of events; the logical relationship includes: "and", "or" and "and" And the setting parameters provided by the setting module further include logical relationship parameters between most events; the logical relationship includes: "and", "or" and "and". The combined wireless sensor application system of claim 1 or 2, wherein the setting module provides a user graphical interface. The combined wireless sensor application system of claim 2, wherein the sensing module comprises at least one selected from the group consisting of an accelerometer, a magnetometer, a gyroscope, and a heart rate sensor. , satellite locator, sound sensor, optical sensor, temperature sensor, vibration sensor, barometric sensor, surface pressure sensor. The combined wireless sensor application system of claim 2, wherein the sensor further includes a processing module and a signal receiving module; the processing module includes a logic circuit for using at least one Sensing result, calculating a detection result, and transmitting the detection result through the signal transmission module; and the signal receiving module can receive an external signal to provide the processing module for processing; and the logic rule The event used is a logical inference result selected from at least one of the following parameters: sensor code, sensing result, and detection result information. The combined wireless sensor application system of claim 2, wherein the sensing parameter comprises at least one of the following parameters: a received signal strength indication (RSI), a gravity value, an angular velocity value, and an air pressure. Value, brightness, temperature, humidity, sound, timer value. The combined wireless sensor application system of claim 7, wherein the event is a determination result based on a threshold of one or more of the sensing parameters. The combined wireless sensor application system of claim 1 or 2, wherein the action inferred by the determination rule comprises an action for alerting the user or triggering another module or an action to generate data. The combined wireless sensor application system of claim 4, wherein the user graphical interface provides a plurality of event representative displays for the user to select; and provides a plurality of action representative displays for the user to select. The combined wireless sensor application system of claim 10, wherein the user interface further provides a majority relationship between the events to display the display for the user to select. The combined wireless sensor application system of claim 10, wherein the user interface provides a selection interface for the user to activate or deactivate a specific determination rule. The combined wireless sensor application system of claim 11, wherein the user interface provides a selection interface for the user to activate or deactivate a specific determination rule. The combined wireless sensor application system of claim 1 or 2, wherein the processing device is built in a portable device having the capability to execute the action command, and the mobile device is triggered by the action command The specific module executes the action instruction.