FR3127247A3 - WINDOW OR DOOR FOR INSTALLATION IN A BUILDING AND MONITORING SYSTEM INCLUDING A WINDOW OR DOOR SENSOR - Google Patents

Abstract

The invention relates to a window or door to be installed in a building, the window or door comprising a pair of members; the members comprising a frame defining an opening and a closure movable relative to the frame. A first socket (52) is secured within a first port in a first of the members, the first socket (52) having a first outwardly opening recess which receives a sensor unit. The sensor unit, which is preferably inserted into the socket only after the window or door has been installed in a building, comprises a housing, a magnetically activated sensor, a microprocessor, an RF transmitter and a battery. A second socket (48) is secured within a second hole in a second of the members, the second socket having a second outwardly opening recess which receives a magnet for actuation of the magnetically activated sensor. Figure to be published with abstract: Fig. 4

Description

WINDOW OR DOOR FOR INSTALLATION IN A BUILDING AND MONITORING SYSTEM INCLUDING A WINDOW OR DOOR SENSOR

The present invention relates to a window or a door for installation in a building, and monitoring systems comprising a door or window sensor.

The problem of improper entry into premises is a long-standing problem, and for decades electrical/or electronic systems have been proposed to detect the opening of doors or windows of homes and businesses and to activate an alarm of a given type. Although historically the percentage of homes using such systems has been relatively low, more and more such systems are being installed for retrofit in a wider range of premises.

Frequently, such systems detect the opening of a door or window using a magnetic sensing arrangement, with a magnet and a magnetic sensor, such as a reed switch. "reed switch") or a magnetometer, attached respectively to two relatively mobile parts - such as a frame and a door, or a frame and a leaf or an opening. When the door or window is closed, the magnet and the sensor are close enough to each other that the sensor is in a magnetic field of the magnet, so that for example the blades of a reed switch are kept in contact. When the door or window is opened even slightly, the magnet and sensor separate, reducing the strength of the absence magnetic field experienced by the sensor, thus causing the sensor to change state.

Detecting the opening or closing of a door in this way is of interest not only in a security context but, increasingly, in the context of so-called "smart home" installations. "). For example, in response to detecting the opening of an exterior door, a smart home may be arranged to turn on interior lights and/or home heating or cooling, and/or may be configured to turn off the air conditioning when the detection of the opening of a window.

Typically, such sensors and magnets are surface mounted on suitable surfaces of the cooperating elements, regardless of whether the system is installed at construction/commissioning of the premises or installed for retrofitting in premises which have been in use for years. Typically, an installation's magnet and sensor are mounted on surfaces that are visible even when the door/window is closed, despite the damage this causes to the aesthetics of the interior space of the premises, and, more importantly, the risk that the visibility and accessibility of the magnet and sensor will increase the likelihood of the system being sabotaged or disabled. Sometimes, however, the magnet and/or sensor may be hidden in a hole cut or drilled in one face of the frame/door/window - although cutting or drilling holes in a modern window or door can significantly impair their structural integrity and/or insulating properties, and attempts to form such holes may cause significant damage as a result of the holes being formed in inappropriate locations. Additionally, the on-site installer of sensors for a surveillance system is unlikely to know where it can be safe to remove portions of the structure of a window or door, meaning the choice is potentially between mounting the components - and even there, surface fixing may require machining holes for fixing means such as screws or rivets, and risking the structural integrity of the door or window by cutting holes to hide the components.

In some surveillance installations, a door or window may be equipped with a shock sensor rather than, or in addition to, a magnetic contact sensor, but essentially the same issues arise with the mounting of the shock sensor. shocks - although, if an accelerometer is used as the shock sensor, there is no need to provide a magnet to work in conjunction with the shock sensor.

EP3053152B1 offers an alarm kit, as part of a wireless alarm system or smart home system, which can be retrofitted non-invasively to existing building entrances , for example windows and doors, without altering the aesthetics of a home's design. An elongated sensor assembly which has a maximum height of less than 5mm is provided for cooperating with a magnet, in use the elongated sensor assembly and the magnet are configured laterally displaced relative to each other in an opening, void or cavity formed by a window or door and a corresponding frame in a closed position of the window or door. Although the proposed solution can reduce the visual intrusion presented by conventional sensor installations, not all doors or windows can accommodate such a sensor assembly. Furthermore, there is a risk of such sensor assemblies being removed by malicious persons in the event that the window or door is left open.

Technical problem

There is therefore a need for an improved approach to door/window sensor installation in which the magnet and sensor are substantially obscured from view when the door/window is closed, and are therefore better protected against sabotage. .

Technical solution

According to a first aspect, there is provided a window or door to be installed in a building, the window or door comprising; a pair of organs; the members comprising a frame defining an opening and a closure movable relative to the frame between open and closed positions; a first socket secured within a first port in a first of the members, the first socket having a first outwardly opening recess which is configured to receive a magnetic sensor unit; a second socket secured within a second port in a second of the members, the second socket having a second outwardly opening recess which is configured to receive a magnet for actuation of the magnetically activated sensor; the first and second recesses facing each other when the closure is in the closed position.

According to a second aspect, there is proposed a window or door to be installed in a building, the window or door comprising: a pair of members to be mounted inside a frame defining an opening; the members being movable relative to each other and each defining a closure movable relative to the frame between open and closed positions; a first socket secured within a first port in a first of the members, the first socket having a first outwardly opening recess which is configured to receive a magnetic sensor unit;
a second socket secured within a second port in a second of the members, the second socket having a second outwardly opening recess which is configured to receive a magnet for actuation of the magnetically activated sensor; the first and second recesses facing each other when the closure is in the closed position.

Preferably, a window or a door according to the first or the second aspect is configured such that the first and second sockets are hidden from view when the closure is in the closed position.

Optionally, the first and second members are formed from metal extrusions or plastic extrusions and the first and second orifices are formed by machining, and optionally the first and second orifices are formed by machining prior to the connection of the first and second organs.

Optionally, the first indent is defined by an opening which is generally rectangular in shape, with the first indent optionally wider or longer than it is deep. The first recess may be defined by four side walls each of which is continuous. Optionally, the side walls have a thickness of between 0.7 and 3 mm, preferably between 0.8 and 2.4 mm, optionally between 0.9 and 2.2 mm, or between 1 and 2 mm.

Preferably, the first socket is made of a plastic material having low attenuation for radio frequencies in the sub-gigahertz ISM band, the 2.4 gigahertz ISM band, or both.

Optionally, the first sleeve is made of a material selected from the group comprising: ABS, HDPE, polypropylene, polycarbonate, polyamide; or is made of poly(p-phenylene oxide) or poly(p-phenylene ether) blended with one of the following: polystyrene, styrene-butadiene copolymer, polyamide.

Optionally, the first recess is defined by a base, a pair of opposing end walls, and, along each of two long sides between the end walls, one or more unit retention feature(s) forming sensor which serves to prevent a sensor unit inserted in the first socket from being moved laterally.

Optionally, the first indent is between 70 and 130 mm long, 20 to 30 mm deep and 10 to 20 mm wide. Optionally, the first recess is configured to provide an interference fit to a sensor unit that is about 90mm long, about 25mm deep, and about 15mm wide.

Optionally, the first sleeve is configured to expose portions of opposite sides of a sensor unit within the first sleeve, allowing the sensor unit to be grasped between a finger and a thumb to facilitate removal of the sensor unit. sensor unit from inside the first socket.

Optionally, retaining means are provided to secure the sensor unit within the first socket, the retaining means being releasable to allow the sensor unit to be removed from the socket for replacement of the battery. Optionally, the retainer means and corresponding portions of the first sleeve include cooperating features to facilitate releasable retention of the retainer means.

Optionally, the first and second sleeves are secured inside their respective member by means of threaded fasteners. If used, threaded fasteners are preferably non-metallic.

Optionally, the first and second sleeves are secured inside their respective member by means of an adhesive.

Optionally, the first and second sockets each include snap-fit features which engage with one or more interior surfaces of their respective members to retain the socket within the member.

Optionally, the first and second bushings each comprise elastically deformable portions to irreversibly secure the bushings in their respective organs.

Optionally, the window or door is enclosed in protective packaging for shipment.

According to a third aspect, there is provided a window or door according to any of the preceding variants of the first or second aspects in combination with: a sensor unit received in the first socket, the sensor unit comprising a housing, a magnetically activated sensor, microprocessor, RF transmitter and battery; and a magnet, received in the second socket, for actuating the magnetically activated sensor of the sensor unit.

Optionally, the sensor unit of the combination of the third aspect comprises inside the housing a shock sensor, and the microprocessor being configured to cooperate with the shock sensor to detect the shocks received by the door or window and to transmit , using the RF transmitter, alerts about detected shocks. Optionally, the shock sensor comprises an accelerometer.

According to a fourth aspect, there is provided a window system comprising a window with an integrated shock detection system ready for installation in a wall of a building, the shock detection system comprising a sensor unit substantially enclosed in a structural member of the window system, the sensor unit comprising a housing, a shock sensor, a microprocessor and an RF transmitter, and the microprocessor being configured, when activated, to respond to the detection of a shock by the shock sensor, by controlling the RF transmitter so as to transmit a shock alert signal to a controller of a monitoring system.

Optionally, the window system of the fourth aspect further comprises a magnet and a magnetically activated position sensor, the magnet and the position sensor being carried by two window elements movable relative to each other of the window, the relative movable window elements being movable from an open position to a closed position, and the position sensor being configured to determine whether the relative movable window elements the other are in the open or closed position. Optionally, a magnetically activated position sensor is mounted in the housing of the sensor unit.

According to a fifth aspect, there is provided a window system comprising a window with an integrated sensor unit comprising a magnetically activated position sensor, the window system being configured to be installed in a wall of a building, the unit forming sensor being substantially enclosed in a structural member of the window system, the sensor unit comprising a housing, the magnetically activated position sensor, a microprocessor and an RF transmitter, the system further comprising a magnet for activating the activated position sensor magnetically, wherein the magnet and the position sensor are carried by two mutually movable window elements of the window system, the mutually movable window elements being movable d from an open position to a closed position, and the position sensor being configured to determine whether the window elements movable relative to each other are in the open or closed position, and where the microprocessor is configured, when it is activated, to respond to detection by the magnetically activated position sensor of the open window by controlling the transmission by the RF transmitter of an alert to a controller of a surveillance system.

Optionally, the sensor unit of any variation of the fourth or fifth aspect is releasably mounted within a socket in the structural member. Preferably, the socket is an insert in the structural member. Optionally, the insert is injection molded. Preferably, the insert being made of a plastic material having a low attenuation for the radio frequencies used by the RF transmitter. Preferably, the radio frequencies used by the RF transmitter are in a sub-gigahertz ISM band, the 2.4 gigahertz ISM band, or both.

Optionally, the insert is made of a material selected from the group comprising: ABS, HDPE, polypropylene, polycarbonate, polyamide; or is made of poly(p-phenylene oxide) or poly(p-phenylene ether) blended with one of the following: polystyrene, styrene-butadiene copolymer, polyamide.

According to a sixth aspect, there is proposed a kit of parts comprising a window or door with 2 recesses on movable members relative to each other which are arranged adjacent to each other when the members are in position. closed, two low RF attenuation sockets adapted to fit into recesses, a magnet and a magnetic sensor, one of the sockets being configured to receive the magnet, and the other of the sockets being configured to receive the sensor magnetic.

According to a seventh aspect, there is provided a kit of parts comprising a window/door with 2 recesses on members movable relative to each other which are arranged adjacent to each other when the members are in position. closed, and two low RF attenuation sockets adapted to fit into the recesses, the sockets being adapted to retain a magnet and a magnetic sensor respectively.

The sixth or seventh aspect magnetic sensor may be part of a sensor unit which also includes a shock sensor.

According to an eighth aspect, there is provided a kit of parts comprising a window or door with a recess in the window or door member, a low RF attenuation socket adapted to fit into the recess, a sensor unit shock having an RF transceiver, the socket being configured to receive the shock sensor unit.

Optionally, in the sixth to eighth aspects, the socket to receive the magnetic sensor or the shock sensor unit can be made of a material selected from the group comprising: ABS, HDPE, polypropylene, polycarbonate , polyamide; or is made of poly(p-phenylene oxide) or poly(p-phenylene ether) blended with one of the following: polystyrene, styrene-butadiene copolymer, polyamide.

Optionally, the first sleeve is made of a plastic material having low attenuation for radio frequencies (RF, from the English "Radio Frequencies") in a sub-gigahertz ISM band, the 2.4 gigahertz ISM band, or the two.

Optionally, the first sleeve is made of a material selected from the group comprising: ABS, HDPE, polypropylene, polycarbonate, polyamide; or is made of poly(p-phenylene oxide) or poly(p-phenylene ether) blended with one of the following: polystyrene, styrene-butadiene copolymer, polyamide.

Optionally, the window system comprising a window with an integrated shock sensing system ready for installation in a wall of a building, the shock sensing system comprising a sensor unit substantially enclosed in a structural member of the window, the sensor unit comprising a housing, a shock sensor, a microprocessor and an RF transmitter, and the microprocessor being configured, when activated, to respond to the detection of a shock by the shock sensor, controlling the RF transmitter to transmit a shock alert signal to a controller of a monitoring system.

Optionally, the sensor unit is releasably mounted in a socket which is an insert mounted in the structural member.

Other characteristics, details and advantages of the invention will appear on reading the detailed description below, and on analyzing the appended drawings, in which:

Fig. 1

shows a detail of two window or door members to be installed in a building, the members being provided with respective cooperating sockets, according to one aspect of the invention;

Fig. 2

is a schematic cross-section showing a view along lines AA of the for both organs, when the window is closed;

Fig. 3

shows, in simplified form, another window according to one embodiment of the invention;

Fig. 4

is a schematic cross-section showing a view along lines BB of the ;

Fig. 5a

schematically shows, in cross section, a detail of the way in which a socket can be retained inside a member of a door or window according to one embodiment of the invention;

Fig. 5b

is a schematic perspective view of a longitudinal portion of a socket showing a multi-tongued snap-fit fitting arrangement, according to one embodiment of the invention;

Fig. 6

shows examples of sockets, sensor units and packaged magnets for use with the sensor units, according to embodiments of the invention;

Fig. 7

generally corresponds to the but shows an open sided rather than closed sided socket arrangement, according to one embodiment of the invention;

Fig. 8

schematically shows a possible arrangement of components of a sensor unit according to embodiments of the invention;

Fig. 9

schematically shows the relationship between the main components of a sensor module according to embodiments of the invention; And

Fig. 10

is a schematic diagram showing the main elements of an installation of a security monitoring system according to one aspect of the invention.

Claims (11)

A window system comprising a window with an integrated impact sensing system ready for installation in a wall of a building, the impact sensing system comprising a sensor unit substantially enclosed in a structural member of the window system, the sensor unit comprising a housing (902), a shock sensor (912), a microprocessor (908) and an RF transmitter (914), and the microprocessor (908) being configured, when activated, to respond to detecting a shock by the shock sensor (912), controlling the RF transmitter (914) to transmit a shock alert signal to a controller of a monitoring system. A window system as claimed in claim 1, the sensor unit being releasably mounted in a socket which is an insert mounted in the structural member. Window system as claimed in claim 1 or 2, further comprising a magnet and a magnetically activated position sensor, the magnet and the position sensor being carried by two window elements movable with respect to each other of the window system, the relative movable window elements being movable from an open position to a closed position, and the position sensor being configured to determine whether the relative movable window elements to each other are in the open or closed position. A window system as claimed in claim 3, a magnetically activated position sensor being mounted in the housing (902) of the sensor unit. A window system comprising a window with an integrated sensor unit comprising a magnetically activated position sensor, the window system being configured to be installed in a wall of a building, the sensor unit being substantially enclosed in a structural member of the window system, the sensor unit comprising a housing (902), the magnetically activated position sensor, a microprocessor (908) and an RF transmitter (914), the system further comprising a magnet for activating the activated position sensor magnetically, where the magnet and the position sensor are carried by two window elements movable relative to each other of the window system,
the relative movable window elements being movable from an open position to a closed position, and the position sensor being configured to determine whether the relative movable window elements are in the open or closed position, and wherein the microprocessor (908) is configured, when activated, to respond to detection by the magnetically activated position sensor of the open window by controlling transmission by the RF transmitter (914) an alert to a monitoring system controller. A window system as claimed in any one of claims 1 to 5, the sensor unit being releasably mounted within a socket in the structural member. A window system as claimed in claim 6, wherein the sleeve is an insert in the structural member. A window system according to claim 7, wherein the insert is injection molding. A window system as claimed in claim 7 or claim 8, the insert being made of a plastic material having low attenuation for the radio frequencies used by the RF transmitter (914). A window system as claimed in claim 9, the radio frequencies used by the RF transmitter being in a sub-gigahertz ISM band, the 2.4 gigahertz ISM band, or both. A window system as claimed in claim 7 or claim 8, the insert being made of a material selected from the group comprising: ABS, HDPE, polypropylene, polycarbonate, polyamide; or being made of a poly(p-phenylene oxide) or a poly(p-phenylene ether) blended with one of the following: polystyrene, a styrene-butadiene copolymer, a polyamide.
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