阅读说明：本技术 安全检测装置和系统 (Safety detection device and system ) 是由 大卫·弗雷德里克·斯莫尔 于 2019-12-18 设计创作，主要内容包括：提供了灯具和安全检测系统,其使得烟雾检测装置能够以看不见的方式安装,从而减轻将不雅观的烟雾检测装置安装在整个建筑物中的需要。安全检测系统包括：电气固定装置,所述电气固定装置用于安装在建筑物中；以及烟雾检测装置,所述烟雾检测装置用于至少检测建筑物中的烟雾。烟雾检测装置与电气固定装置集成,使得烟雾检测装置在安装时被隐藏。(A light fixture and security detection system are provided that enable a smoke detection device to be mounted in an invisible manner, thereby alleviating the need to mount unsightly smoke detection devices throughout a building. The security detection system includes: an electrical fixture for installation in a building; and smoke detection means for detecting at least smoke in the building. The smoke detection device is integrated with the electrical fixture such that the smoke detection device is concealed when installed.)

1. A security detection system, comprising:

an electrical fixture for installation in a building; and

a smoke detection device for at least detecting smoke in the building, the smoke detection device being integrated with the electrical fixture such that the smoke detection device is concealed when installed.

2. The security detection system of claim 1, wherein the fixture comprises a light fixture.

3. The security detection system of claim 1 or claim 2, further comprising a reservoir, the reservoir being concealed by the electrical fixture, the reservoir comprising the smoke detection device.

4. The safety detection system of claim 3, wherein the reservoir comprises one or more apertures to enable airflow into the reservoir.

5. A security detection system as claimed in claim 3 or claim 4 in which the reservoir is positioned behind the fixture in use so as to be concealed by the fixture.

6. The security detection system of any one of claims 3 to 5, wherein the fixture comprises a panel configured to conceal the reservoir.

7. The security detection system of any one of the preceding claims, wherein the fixture is configured to be mounted on a ceiling in the building.

8. A safety system as claimed in claim 7, wherein a reservoir including the smoke detection apparatus is at least partially received in a space defined above the ceiling.

9. The safety detection system of any one of the preceding claims, comprising an electrical input configured to provide power to both the smoke detection device and the electrical fixture device.

10. The safety detection system of claim 9, wherein the electrical input is a switch electrical input configured to enable the fixture to be opened and closed.

11. The safety detection system of claim 10, further comprising a battery configured to power the smoke detection device when the fixture is turned off.

12. The security detection system of any one of claims 1 to 8, comprising: a switch electrical input configured to power the electrical fixture; and a non-stationary electrical input configured to power the smoke detection device.

13. The safety detection system of any one of the preceding claims, wherein the electrical fixture is configured to operate in a signaling configuration when smoke is detected by the smoke detection device.

14. The safety detection system of any one of the preceding claims, comprising a second electrical fixture configured to operate in a signaling configuration when smoke is detected by the smoke detection device.

15. The security detection system of any one of the preceding claims, wherein the electrical fixture and the second electrical fixture are wirelessly coupled.

16. The security detection system of any one of the preceding claims, comprising a light configured to illuminate in the event of an alarm condition, wherein the light is capable of representing the type or nature of the alarm via a tone or light activation sequencing (e.g. flashing pattern or sequence).

17. The security detection system of any one of the preceding claims, wherein the fixture comprises a light fixture including a lighting component, wherein a color tone of the light fixture is variable to represent operating status or alarm status information.

18. The security detection system of any one of the preceding claims, wherein the electrical fixture is installed during construction of the building and is connected to a mains power supply within the building.

19. The security detection system of any one of the preceding claims, wherein the detection device comprises a communication module configured to enable the detection device to communicate with a remote device.

20. A light fixture for installation in a building, the light fixture comprising smoke detection means for detecting at least smoke in the building, the smoke detection means being integrated with the light fixture such that the smoke detection means is concealed by the light fixture when installed.

Technical Field

The present invention relates to a security detection system and apparatus and in particular, but not exclusively, to a smoke detection apparatus for installation in a building.

Background

Smoke detection devices are an important safety feature in residential and commercial buildings. They provide early detection of environmental parameters indicative of the presence of fires, such as smoke particles and overheating.

In many jurisdictions, there are laws or building regulations that specify the presence, function, configuration and installation of smoke detection devices in buildings. For example, queensland law mandates that by 1 month 2022, all houses, allied villas and apartments require interconnected and 240V powered smoke alarms in each bedroom, hallway connecting the bedrooms, living room and at least one smoke alarm on the bedroomless floor.

A problem with prior art smoke detection devices is that they are often unsightly, which is particularly problematic as the smoke alarm must be placed throughout the building. Another problem with prior art smoke detection devices is that smoke detection devices are often expensive to install, especially if they are connected to the mains power supply of the building in addition to the battery power supply, as required by modern standards.

Thus, there is a clear need for improved security detection devices and systems, particularly in the context of smoke detection devices.

It will be clearly understood that, if a prior art publication is referred to herein, this reference does not constitute an admission that the publication forms part of the common general knowledge in the art in australia or in any other country.

Disclosure of Invention

The present invention is directed to a security detection device and system that may at least partially overcome at least one of the aforementioned disadvantages or provide the consumer with a useful or commercial choice.

In view of the foregoing, in a first aspect, the present invention resides broadly in a security detection system comprising:

an electrical fixture for installation in a building; and

a smoke detection device for at least detecting smoke in the building, the smoke detection device being integrated with the electrical fixture such that the smoke detection device is concealed when installed.

Advantageously, the system enables the smoke detection apparatus to be mounted in an invisible manner, thereby alleviating the need to mount unsightly smoke detection apparatus throughout a building. Since electrical fixtures such as light fixtures are common throughout a building, smoke detection devices may be installed in association therewith with little additional labor cost.

The fixture may comprise a light fixture.

The security detection system may include: a reservoir concealed by the electrical fixture, the reservoir comprising the smoke detection device.

The reservoir may include one or more apertures to enable airflow into the reservoir. The reservoir may be positioned behind the fixture in use so as to be hidden by the fixture. The fixture may include a plurality of apertures around the perimeter of its base to enable airflow into the reservoir.

The fixture may include a panel configured to conceal the reservoir. The reservoir may be fixedly attached to the panel.

The fixture may be configured to be mounted on a ceiling in the building. The reservoir may be at least partially received in a space defined above the ceiling. The fixture may extend downwardly from the ceiling.

The reservoir may be, for example, cylindrical or frustoconical in shape.

The reservoir may be releasably engageable with the securing means.

The system may include: an electrical input configured to provide power to both the smoke detection device and the electrical fixture device. The electrical input may be configured to provide power to a battery, which in turn powers the smoke detection device with at least one configuration.

The system may be configured to connect to a switch electrical input configured to enable the fixture to be opened and closed. The system may include: a battery configured to power the smoke detection device when the fixture is turned off. The system may include: a second electrical input to power the smoke detection device. The second electrical input may be a non-switching (i.e. permanent) input.

The electrical fixture may be configured to operate in a signaling configuration when smoke is detected by the smoke detection device. In the case of a light fixture, the lights may be configured to flash or illuminate at a particular color tone and/or frequency to provide signaling to occupants in the building.

The system may include: a second electrical fixture configured to operate in a signaling configuration when the smoke detection device detects smoke. Such a configuration enables multiple electrical fixtures (e.g., lamps) to operate in a signaling configuration in a coordinated manner. The first electrical fixture and the second electrical fixture may be wirelessly coupled (e.g., via wifi or RF).

The smoke detection device may comprise an input sensor. The input sensor may include a plurality of sensors each configured to sense a level of one or more environmental parameters, including smoke, carbon monoxide, temperature, infrared radiation, or other detectable environmental parameters.

The detection device may include: an ionization event sensor configured to detect and react to particles emitted in a fire. The detection device may include an electrical sensor configured to detect smoke. The detection device may include a carbon monoxide sensor configured to detect an undesirable level of carbon monoxide. The detection means may comprise a temperature sensor configured to detect an excessive temperature indicative of a fire. The detection means may comprise further sensors configured to detect further environmental parameters. The detection device may comprise a plurality of sensors configured to detect different environmental parameters.

The input sensor may also be configured to detect a position or orientation of an origin of the detectable environmental parameter.

The security detection system may include a light sensor to sense a light level within a space surrounding the device.

The detection device may include one or more status outputs to output information indicative of the status of the detection device. The status information may include information relating to the operational status of the device. The output status information may include information related to an alarm status of the device or a power status of the device, including a low battery alarm and a communication connectivity loss alarm.

The information related to the operational state of the device may include: communicating information of a current state of the device, a current configuration of the device, an error state of the device, a power state of the device, a communication state of the device, a connectivity state of the device; state history information; sensor history information; the currently detected sensor level or other status information.

The information relating to the alarm state of the device may include information about current or past smoke states, carbon monoxide states, or other detectable environmental parameter states.

The status outputs may include a sound emitting device (e.g., a speaker or a piezoelectric buzzer), one or more lights, one or more status displays, or other status outputs. The status output may be in communication with a remote device. The one or more lights may comprise a light or status light of the fixture.

The device may communicate alarm status or operational status information to a user via the illumination frequency, pattern, brightness, or color of one or more lights. The device may communicate alarm status or operational status information to the user via audible sound, a prerecorded audible alarm, human voice instructions, or other sound emitted from a speaker.

In the event of an alarm condition, the lights may illuminate. The warning light may provide illumination that directs the user to the exit. The lights may indicate the type or nature of the alarm via a tone or light activation sequencing (i.e., flashing pattern or sequence). The light may be a light of a fixture (i.e., a light fixture) or an alarm light.

The device may be integrally formed with, fixedly attached to, or removably attached to an electrical fixture. The electrical fixture may be configured to be integrally formed with, fixedly attached to, or removably attached to an interior wall, exterior wall, ceiling or other surface of a building or structure.

The electrical fixture may be a component that is installed during construction of the building or structure and is connectable to a mains electricity supply within the building or structure.

According to one embodiment of the invention, the electrical fixture may be a fan, such as a ceiling fan or an exhaust fan. The safety detection system may configure the fan to be deactivated or activated in response to the device entering an alarm state.

According to another embodiment of the invention, the electrical fixture may be an air conditioning unit or a ventilation unit. The safety detection system may configure the air conditioning unit to deactivate, activate, or change an operating mode in response to the device entering an alarm state.

According to some embodiments, the electrical fixture may be a light fixture comprising a lighting component. The illumination component may comprise a light, such as a globe, downlight, spotlight, or other illumination component. The lighting component may also include a light fixture, such as a shade, rose (rose), pendant, or flush mount. The detection device may be positioned above the lighting component or in any suitable location to allow for efficient detection of smoke or other environmental parameters indicative of a fire.

The lighting component may be a lamp configured to illuminate a room or a substantial part of a room. The light fixture may be integrally formed with, fixedly attached to, or removably attached to a ceiling or wall within a room. The light fixture may be integrally formed with, fixedly attached to, or removably attached to another accessory in a room. The room may be an interior space and an exterior space or a portion thereof.

The illumination component may be configured to produce illumination in one or more hues. The security detection device may configure an illumination frequency, pattern, brightness, or hue of the illumination component to represent alarm status information or operation status information of the device. In one embodiment, the lighting component may be configured to provide a flashing red light when smoke is detected.

The lighting hue of the luminaire may be configurable and may depend on the state of the detection means. The lighting hues may be capable of being configured remotely by a remote device or hub device in communication with the lighting components, either directly or indirectly via the detection device.

The color tone of the lighting component may be configured to indicate operational status information and/or alarm status information of the detection device and/or the luminaire. The lighting hue of the luminaire may be configured to indicate other information.

The color tone of the illumination means may be variable or changeable. The change or change in hue may indicate an operating state or alarm state information. The illumination component may be configured to flash or display a sequence of illumination states.

The detection device may include one or more status outputs to indicate an operational or alarm condition of the detection device. The status output may include a speaker, one or more lights, one or more visual displays, or a connection to a remote alarm device.

The speaker of the detection device may be configured to generate an audible noise in response to a triggered operational state or alarm state of the detection device. One or more status lights of the apparatus may be configured to illuminate in response to detecting that the apparatus enters an operational state or an alarm state. The illumination frequency, pattern, or hue of the status light may indicate the current operation or alarm status of the device.

The detection device may include a control input to allow a user to control the operation of the detection device or the electrical fixture into which the detection device is integrated. The control input may include one or more buttons, switches, a touch screen, or a microphone to receive voice command input.

The detection device may receive input from a user via a control input, and the detection device may adjust an operation or alarm state of the detection device in response to receiving input via the control input.

The detection device may include a controller that controls operation of the detection device. The controller may receive and process information from the sensors regarding the sensed level of one or more environmental parameters. The controller may compare the sensed level of one or more environmental parameters to a preset or preconfigured acceptable range or level to determine if the sensed level is acceptable. In the event that one or more levels fall outside of the relevant acceptable range or level, the controller may change the state of the detection device to an alarm state, follow an alarm procedure, and control the state output to indicate alarm state information.

The controller may control operation of the electrical fixture. In the alarm state, the controller may control operation of the electrical fixture to indicate alarm information or provide safety assistance. For example, in the case where the electrical fixture is a ceiling light, in the case of a fire alarm, the controller may turn on the light to help the user find an exit route. Alternatively, if the electrical fixture is an exhaust fan, the controller may engage the exhaust fan to exhaust carbon monoxide out of the building in the event of a carbon monoxide alarm.

The detection device may be configured to provide status updates and other information to a remote server or application on the device via the internet, cellular network, or other communication means. The smoke detection device may be communicatively connected to a cloud server system and may be communicatively interconnected to a peer detection device.

The detection device may include a communication module configured to enable the detection device to communicate with a remote device.

The detection device may communicate with other similar devices. The similar device may be a peer device performing similar functions as the detection device.

Wireless communication between peer detection devices may be accomplished via an 802.11 wireless communication protocol, a cellular communication protocol, an infrared protocol, bluetooth or other near field communication protocol, Short Message Service (SMS), or other communication protocol. The peer devices may also communicate via a wired communication protocol.

The device may communicate with a hub device. The hub device may be interconnected with other electronic devices within the building. The detection device may be remotely controlled by an application operating on the hub device.

The detection device may be in communication with and remotely controllable by one or more remote devices. The remote device may include a mobile device such as a mobile phone or other smart device. The device may be remotely controlled by an application operating on the mobile device.

The detection device may be configured to communicate status and alarm information to one or more remote devices, including a mobile device or a hub device. In the event that the detection device enters an alarm state, the device may communicate information about the alarm to a remote device (such as a mobile phone or home hub), or to an application, via a wired or wireless connection. The alert information may define a property, location, intensity, or other information related to the alert. The device may also communicate operational status information such as function, current configuration, location, connectivity. The device may also record and communicate log information, such as historical environmental parameter levels, past alarm events, and past configuration events.

The detection device may have smart home connectivity and be integrated into the home via the internet of things. The communication module may be configured to transmit and repeat Wi-Fi signals to improve wireless communication coverage. The detection means may have a battery power supply to function in the event of a power failure.

In another form, the invention resides broadly in a light fixture for installation in a building, the light fixture including: a smoke detection device for detecting at least smoke in the building, the smoke detection device being integrated with the light fixture such that the smoke detection device is concealed by the light fixture when installed.

Any of the features described herein may be combined with any one or more of the other features described herein in any combination within the scope of the invention.

The reference to any prior art in this specification is not, and should not be taken as, an acknowledgment or any form of suggestion that prior art forms part of the common general knowledge.

Drawings

Various embodiments of the present invention will be described with reference to the following drawings, in which:

fig. 1 shows a schematic diagram of a security detection system according to an embodiment of the invention.

Fig. 2 shows a schematic diagram of a security detection system according to an embodiment of the invention.

Fig. 3 shows a schematic view of a building including a security detection system according to an embodiment of the invention.

Fig. 4 shows a lower perspective view of a luminaire for installation in a building according to an embodiment of the present invention.

Fig. 5 shows a cross-sectional view of the luminaire of fig. 4.

Fig. 6 shows an exploded view of the luminaire of fig. 4.

Fig. 7 shows a lower perspective view of the luminaire of fig. 4 mounted in a ceiling according to an embodiment of the invention.

Fig. 8 shows the ceiling of fig. 7, in which the luminaire of fig. 4 and two adjacent luminaires are installed.

Fig. 9 shows a lower perspective view of a luminaire for installation in a building according to an embodiment of the present invention.

Fig. 10 shows a cross-sectional view of the luminaire of fig. 9.

Fig. 11 shows an exploded view of the luminaire of fig. 9.

Fig. 12 shows the fixture of fig. 9 installed in the ceiling of fig. 7.

Fig. 13 shows an enlarged portion of the fixture of fig. 9 installed in the ceiling of fig. 7.

Fig. 14 shows the ceiling of fig. 7, in which the luminaire of fig. 9 and two adjacent luminaires are installed.

Fig. 15 shows the luminaire of fig. 4 and the adjacent luminaire of fig. 8 emitting warm white light to illuminate a room.

Fig. 16 shows the luminaire of fig. 4 and the adjacent luminaire of fig. 8 in an alarm configuration.

Fig. 17 shows a schematic view of a building including a security detection system according to an embodiment of the invention.

The preferred features, embodiments and variations of the present invention are discernible by the following detailed description that provides sufficient information for a person skilled in the art to carry out the invention. The detailed description is not to be taken as limiting the scope of the foregoing summary in any way.

Detailed Description

According to a preferred embodiment of the present invention, a safety detection system 100 is provided, the safety detection system 100 comprising a smoke detection device 101 and an electrical light fixture 112.

According to the preferred embodiment shown in FIG. 1, a power supply 116 provides mains power to the electrical input 114 of the security detection device 100. The electrical inputs provide power to the smoke detection device 101 and the electrical fixture 112.

The smoke detection device 101 comprises a plurality of sensors 104. The sensor 104 includes: an ionization sensor configured to detect and react to particles emitted in a fire; a photosensor configured to detect smoke; a carbon monoxide sensor configured to detect a level of carbon monoxide in the atmosphere surrounding the detection device; and a temperature sensor configured to detect a temperature around the detection device (an excessive temperature may indicate a fire).

In the embodiment shown in fig. 1, the electrical fixture 112 is a lighting component, specifically a ceiling light. Those skilled in the art will appreciate that in alternative embodiments of the present invention, the electrical fixture may include a ceiling fan, an air conditioning unit, a ceiling fan incorporating a lighting component, another type of light, or another energized component integrally formed with or attached to a building or structure.

The illumination component 112 provides illumination in the space in which the system 100 is installed. The illumination component 112 may be configured to provide illumination in a plurality of shades or colors and over a range of brightness.

The user may configure the lighting device 112 to produce a desired lighting hue and brightness by selecting a desired configuration via: a control input 106 of the system 100, or an application communicating with the system via a communication module 108.

The sensor 104 monitors the level of an environmental parameter in a range near the sensing device. The sensor 104 provides information to the controller 102 regarding the level of the environmental parameter. The controller 102 determines whether the detected level is within an acceptable range or at an acceptable level (as preset or configured) or whether the level indicates an alarm condition.

Alternatively, the sensor 104 may be configured to provide a signal to the controller 102 in the event of an alarm condition, rather than providing a continuous horizontal flow. This may be particularly relevant in the case of smoke, which may be detected as being present or absent.

The status output 110 includes a speaker and a plurality of status lights. In alternative embodiments, the status output may be connected to a remote status output device, such as a light or speaker located remotely from the device, or a vibrating pad located in the bed. The vibrating pad may provide a non-audible alarm signal to provide an alarm to a person who cannot be alerted by the audible signal.

In the embodiment of the invention shown in fig. 1, the power supply 116 provides power to the electrical input 114, and the electrical input 114 is electrically connected to the components of the security detection system 100 (including the smoke detection device 101, the controller 102, the communication module 108, and the status output 110). The electrical input 114 also provides power to the electrical fixture 112. In the embodiment depicted in fig. 2, the electrical input 114 is connected to a mains power supply 116 of the building or structure in which the detection system 100 is installed. In another embodiment, the power source may be another type of power source. The electrical input 114 may also include a battery configured to provide battery power to the safety detection system 100 as an alternative to mains power. This may be particularly advantageous in the event of a power outage.

The controller 102 controls the smoke detection device 101 by transitioning between operating states of the smoke detection device 101. Under normal use conditions, the detection device 101 operates most of the time in a detection operating state. Within the detection operating state, the detection device senses a level of the detectable environmental parameter.

In the case of an alarm event (or emergency event), the detection device 101 enters an alarm operating state. The function of the detection apparatus 101 in the alarm operating state depends on the nature of the alarm and the configuration settings of the detection apparatus 101 at the time of the alarm event.

The detection apparatus 101 is configured to provide an indication of an alarm event via an audible signal emitted from a speaker and illumination of a status light. The detection device may also be configured to send alarm information to the hub device, the remote application, and a remote device including the user's mobile phone via the communication network. The detection device 101 may also be configured to send alert information to peer detection devices via a wireless or wired communication network.

In the embodiment depicted in fig. 1, the detection device 101 is configured to send a control signal to the electrical fixture 112 via the communication link 118 between the controller 102 and the electrical fixture 112 if the sensor 104 detects an alarm event. The control signals transmitted via the communication link 118 are configured to change the operating state of the electrical fixture in the event of an emergency to provide assistance to the user.

In the embodiment depicted in fig. 1, the electrical fixture 112 is a ceiling light. In this embodiment, the controller 102 is configured to send a control signal to the ceiling lights 112 via the communication link 118 that turns on the ceiling lights 112 to enable a user to locate an exit of the building in the event of an emergency.

In the case of an alarm event or emergency, the controller 102 communicates with a peer device located in the building via the communication module to indicate that the smoke detection device 101 has detected an emergency and enters an alarm operating state. Depending on the configuration of the peer detection device, the peer detection device may also respond to receiving such communications from the smoke detection device 101 by: an alarm operating state is entered and a control signal is sent to its respective electrical fixture instructing the electrical fixture to change operating state to assist the user in the event of an emergency.

In the embodiment depicted in fig. 2, detection device 101 is in network communication connection with interconnected components including a hub device 210, one or more remote servers and the internet 212, one or more mobile communication devices 206, and a peer detection device 202.

The hub device 210 acts as a central control point to communicate with and control selected electronic devices within the residence or building. Hub device 210 is communicatively interconnected with each of detection devices 101 and peer detection devices 202 to receive status information from detection devices 101, 202 and to provide configuration and control information to detection devices 101, 202.

In the embodiment of the invention depicted in fig. 2, the hub device 210 communicates with the detection devices 101, 202 via a wireless internet protocol based on the IEEE 802.11LAN protocol. The hub device 210 is also communicatively connected to a server in the cloud to enable status information to be sent from the hub device 210 to an application on a remote server and to a remote device, such as a user's mobile phone, via an email protocol or a cellular network protocol. The hub device 210 is also configured to receive configuration information from an application operating on a remote server or from an application operating on a remote user device. Such configuration information may relate to the operation of the hub device 210, the connectivity of the hub device with the detection device, or instructions of the detection device regarding the configuration of the hub device.

In some embodiments of the invention, the detection device 101, 202 may be a simple device with limited communication connectivity. For example, the detection apparatus 101, 202 may not be configured to communicate with an application on a remote server via the communication network 204. Instead, the detection device may be configured to communicate only with the hub device 210. In such an embodiment, the hub device would act as a repeater or gateway through which the detection device communicates with the external application to provide status information, and the external application communicates with the detection device to provide configuration information. Advantageously, such an arrangement would not require the installation of complex, fully communicatively connected detection devices in each room of the building. The simplification of the function of the detection device makes it possible to reduce complexity and costs.

In an embodiment of the invention as depicted in fig. 2, detection device 101 communicates with a peer detection device (collectively numbered 202). Each of the peer detection devices 202 may be located in a different room or area of the building to detect environmental parameters within the different room or area of the building. Within a typical residential house, the detection devices may be located in each of the kitchen, rest room, bedroom and hallway.

Peer detection device 202 may be substantially identical to detection device 101 or may differ in function and purpose. Typically, a detection device located in a kitchen will be configured differently than a detection device located in a bedroom, for example to account for the naturally high levels of heat, smoke and other factors within the kitchen compared to the bedroom.

The detection device 101 is communicatively connected to the peer detection device via a communication network 204. The communication network 204 includes a wireless internet protocol, a cellular network, and a near field communication network. In the implementation depicted in fig. 2, detection device 101 is also communicatively connected to peer detection device 202 via wired communication channel 208. The wired communication channel 208 provides an auxiliary communication means for enabling detection of communication between devices in the event of interference or blockage of the wireless communication network 204.

In the event that the detection device 101 detects an alarm event and thus enters an alarm state, the detection device 101 communicates with one or more of the peer detection devices 202 via the communication network 204 or via the wired communication channel 208 to indicate that it has entered an alarm operating state and to indicate the nature of the alarm event that has occurred. The peer-to-peer communications device 202 is configured to enter the alert operating state upon receiving a communication that detects that the device 101 has entered the alert operating state. Similarly, the detection apparatus 101 is configured to enter the alert operating state upon receiving a communication indicating that the peer detection apparatus 202 has entered the alert operating state.

Detection device 101 and peer detection device 202 may provide coordinated alarm responses by: the same alert indication is provided both audibly and visually, or different alert responses are provided to assist the user in achieving safety in the event of an emergency. In a scenario where the electrical fixture with which the detection device and the peer detection device are integrated is a ceiling light, examples of different alarm responses would be: ceiling lights located near the smoke source illuminate in red and ceiling lights located along the route to the security exit illuminate in green to assist the user in locating the security exit.

The security detection system 100 is installed by connecting the electrical input 114 to the mains power supply of the building via the power input 116. Advantageously, the electrical installation of the safety detection system 100 requires only a single electrical connection (i.e., the electrical connection of the electrical input to the building power source) in order to electrically connect the smoke detection device and the electrical fixture.

Additionally, during installation, the safety detection system including the electrical fixture is physically attached to the building in a position that enables proper function of the electrical fixture 112 and complies with the positioning regulations of the smoke detection device 101. Advantageously, the physical installation of both the electrical fixture 112 and the smoke detection system 101 may be accomplished during a single step of installing the combination safety detection system 100.

Fig. 3 shows a schematic diagram of a building 300 including a security detection system according to an embodiment of the invention.

The building 300 includes a light fixture 305 in the form of a downlight mounted in a ceiling 310 of the building 300. The smoke detection device 315 is integrated with the luminaire 305 and hidden by the luminaire 400 and the ceiling 310. As outlined in further detail below, the light fixture 305 may include apertures to enable airflow to the smoke detection device 315.

The light fixture 305 is coupled to a switching power supply 320, the switching power supply 320 being switched using a wall switch 325, as is well known in residential buildings.

A plurality of further light fixtures 330 are also coupled to the switching power supply 320 and may therefore also be selectively switched on to illuminate the interior of the building 300.

When the power source 320 is switched on and off, it is not always powered and, as such, a battery associated with the smoke detection device 315 is provided. The battery may be rechargeable or replaceable.

The light fixture 305, the smoke detection device 315 and the further light fixture 330 are also coupled to a hub 335. Hub 335 is coupled to the internet through modem 340 and router 345, as is well known in connection with computing devices. This enables the lamps of the light fixture 305 and the further light fixture 330 to function as smart lamps and also enables the lamps of the light fixture 305 and the further light fixture 330 to function in a coordinated manner when smoke is detected.

The hub 335 may provide a human interface, enabling a user to interact directly with the system. In one such embodiment, the hub 335 may include a microphone for enabling voice control. As an illustrative example, a user may interact with the system using voice commands, such as commands for disabling a smoke alarm in the event of a false alarm (e.g., a scorched bread).

Finally, the smartphone 350 is also coupled to the hub 335, and thus to the light fixture 305, the smoke detection device 315 and the further light fixture 330. This enables the control of the light fixture 305, the smoke detection device 315 and the further light fixture 330 using the smartphone 350. As an illustrative example, the smartphone 350 may be used to initiate a self-test of the smoke detection device 315, change the configuration of the light fixture 305 and the further light fixture 330, or receive an alarm or other information related to the smoke detection device 315.

Fig. 4 shows a lower perspective view of a luminaire 400 for installation in a building, according to an embodiment of the present invention. The light fixture 400 is similar to the light fixture 305 and the smoke detection device 315, but integrated into a single unit such that the smoke detection device is concealed by the light fixture 400 when installed. Fig. 5 shows a cross-sectional view of the luminaire 400, and fig. 6 shows an exploded view of the luminaire 400.

The luminaire 400 is in the form of a downlight for mounting in a circular hole in the ceiling of a building. The luminaire includes an outer body 405, the outer body 405 configured to be received in and extend into a ceiling of a building. A panel 410 is provided at the lower end of the fixture 400 and is configured to be held against the ceiling using a spring-loaded retainer 415. The outer body 405 is smaller than the hole and the panel 410 is larger than the hole, and a spring loaded retainer 415 biases the panel 410 to the underside of the ceiling.

As best shown in fig. 5, the light fixture includes an inner body 420, the inner body 420 housing a light in the form of an LED array 425. The inner body 420 is integrally formed with the face plate 410, for example, from aluminum, and thus may serve as a heat sink for the LED array 425.

The inner body 420 includes a diffuser 430 at a lower end thereof, the diffuser 430 enabling light from the LED array 425 to illuminate an area in a uniform and aesthetically pleasing manner.

The outer body defines a reservoir that includes a smoke detection device 435. The reservoir is frustoconical in shape, but may take other forms in other embodiments (including substantially cylindrical shapes). A light 425 is positioned within the reservoir below the smoke detection device 435, thereby concealing the smoke detection device 435. In this way, the luminaire has an appearance similar to a normal luminaire.

A plurality of apertures 440 are positioned around the perimeter of the panel 410 to enable airflow into the reservoir. The reservoir is positioned behind the light 430 and the inner body 420, and defines a channel between the outer body 405 and the inner body 420 through which air may travel as outlined by the arrows in fig. 5.

As best shown in fig. 6, light fixture 400 includes a wireless (RF) antenna module 445, wireless (RF) antenna module 445 enabling wireless communication between light fixture 400 and other devices (e.g., other light fixtures or computing devices, such as smartphones). As outlined above, such communication may be via a wireless hub, and may be over the internet.

The fixture 400 is powered by a power cable 450, the power cable 450 being associated with a battery 455 as a backup. The power cable 450 is a switching power supply and is adapted to directly power the lamp 425. In this way, the light 425 may be turned on or off using the light switch.

Backup battery 455 is configured to power smoke detection device 435 and wireless (RF) antenna module 445 when power cable 450 is off (i.e., when light 425 is off). Thus, the smoke detection device 435 is able to function adequately even when the power cable 450 is not providing power.

The light fixture 400 includes a piezoelectric buzzer 460, the piezoelectric buzzer 460 being coupled to the smoke detection device 435 to signal the presence of smoke in a similar manner to prior art smoke detection devices. The lights 425 may also be configured to illuminate in an alert mode (e.g., blinking red) when smoke is detected.

Finally, the light fixture includes a test button 465, the test button 465 being operable to initiate a test phase of the smoke detection device 435. The testing phase may include any suitable functionality, and may include testing of the piezoelectric buzzer 460, the battery 455, or any other component of the fixture 400.

The panel 410 and the inner body 420 are integrally formed of aluminum, which is strong and lightweight and serves as a heat sink for the lamp 425. The outer body 405 may be releasably engaged with the faceplate 410 and the inner body 420.

Fig. 7 shows a lower perspective view of a luminaire 400 mounted in a ceiling 700 according to an embodiment of the invention. The outer body 405 is fully received in a hole in the ceiling 700 and the panel 410 completely conceals the hole. Thus, once the fixture is installed, the panel 710 and diffuser 430 can only be seen from below.

Fig. 8 shows a ceiling 700 in which a luminaire 400 and two adjacent luminaires 800 are installed. The adjacent luminaire 800 has a similar (or identical) appearance to luminaire 400 when installed, but does not include a smoke detection device. As such, light fixture 400 may be visually identical (or very similar) in appearance to light fixture 800, and thus the smoke detection device is not visible in the building.

The light fixture 400 and the light fixture 800 may be interconnected such that they operate in a coordinated manner when smoke is detected, as outlined in further detail below.

Fig. 9 shows a lower perspective view of a luminaire 900 for installation in a building according to an embodiment of the present invention. Light fixture 900 is similar to light fixture 400, but includes a ceiling light type light fixture rather than a can light type light fixture. Fig. 10 shows a cross-sectional view of the luminaire 900, and fig. 11 shows an exploded view of the luminaire 900.

The fixture 900 includes a main body 905 to which a panel 910 is attached, similar to the outer body and panel of the fixture 400. The body 905 is configured to receive a smoke detection device 435 and a piezoelectric buzzer 460, and the panel 910 includes an aperture 915 around its edge to enable airflow into a reservoir defined by the body 905. Much like light fixture 400, smoke detection device 435 is hidden from view by light fixture 900 when installed.

Instead of a diffuser and LED array (as in the case of the luminaire 400), the luminaire 900 includes a pendant lamp that includes wires 920 extending downward from the panel 910, with a shade 925 at the lower end of the wires 920. It should be readily understood that the lamp housing is used to house a lamp (not visible) powered by wires 920.

The fixture 900 includes a housing 930 in the shape of a generally rectangular parallelepiped, the housing 930 enclosing the battery 455, the RF antenna module 445, and a main Printed Circuit Board (PCB)935 (which includes the circuitry of the fixture 900). The housing is configured to be received in a ceiling space and is therefore concealed in use.

Finally, the fixture 900 includes a test button 940 on the panel 910, the test button 940 for initiating a test procedure of the fixture 900 (and in particular the smoke detection device 435).

Fig. 12 shows the fixing device 900 installed in the ceiling 700, and fig. 13 shows an enlarged portion of the fixing device 900 installed in the ceiling 700. As shown, the housing 930 and the body 905 are completely hidden.

Fig. 14 shows a ceiling 700 in which a luminaire 900 and two adjacent luminaires 1400 are mounted. The adjacent luminaire 1400 has a similar (or identical) appearance to luminaire 900 when installed, but does not include a smoke detection device. As such, the luminaire 900 may be visually identical (or very similar) in appearance to the luminaire 1400, and thus the smoke detection device is not visible in the building.

The luminaire 900 and the luminaire 1400 may be interconnected such that they operate in a coordinated manner when smoke is detected, as outlined in further detail below.

Fig. 15 shows a luminaire 400 and an adjacent luminaire 800 emitting warm white light to illuminate a room. Such a configuration is typical when light fixtures 400, 800 are generally used to illuminate an area.

Fig. 16 shows the luminaire 400 and an adjacent luminaire 800 in an alarm configuration. The luminaire 400 emits red light while the luminaire 800 emits warm white light to illuminate an area. The skilled person will readily appreciate that both luminaires 400, 800 may emit red light or any suitable hue of light in any configuration (e.g. blinking).

Although the above description relates to the use of fixtures in relation to switching power supplies, the skilled person will readily understand that fixtures may comprise both fixture and switching power supply inputs.

Fig. 17 shows a schematic diagram of a building 1700 including a security detection system according to an embodiment of the invention.

Building 1700 includes a light fixture 305 in the form of a downlight mounted in the ceiling 310 of the building 1700. The smoke detection device 315 is integrated with the luminaire 305 and hidden by the ceiling 310. As outlined above, the light fixture 305 may include apertures to enable airflow to the smoke detection device 315.

The light fixture 305 and smoke detection device 315 are coupled to a power supply 1705, the light fixture is coupled to a switching power supply 1705a, the switching power supply 1705 is switched on and off using a wall switch, and the smoke detection device 315 is coupled to a stationary power supply 1705 b. In this way, the smoke detection device 315 is continuously powered, while the light fixture can be turned on and off using conventional means.

The skilled person will readily appreciate that in alternative embodiments, both the light fixture 305 and the smoke detection device 315 may be coupled to a fixed power source and the light may be turned on and off by signaling (e.g. wireless signaling from a wireless switch).

Advantageously, the system enables the smoke detection apparatus to be mounted in an invisible manner, thereby alleviating the need to mount unsightly smoke detection apparatus throughout a building. Since electrical fixtures such as light fixtures are common throughout a building, smoke detection devices may be installed in association therewith with little additional labor cost.

In this specification and in the claims (if any), the word "comprise", and its derivatives, including "comprises" and "comprising", include each of the integers but do not preclude the inclusion of one or more additional integers.

Reference throughout this specification to "one embodiment" or "an embodiment" means that a particular feature, structure, or characteristic described in connection with the embodiment is included in at least one embodiment of the present invention. Thus, the appearances of the phrases "in one embodiment" or "in an embodiment" in various places throughout this specification are not necessarily all referring to the same embodiment. Furthermore, the particular features, structures, or characteristics may be combined in any suitable manner in one or more combinations.

In compliance with the statute, the invention has been described in language more or less specific as to structural or methodical features. It is to be understood that the invention is not limited to the specific features shown or described, since the means herein described comprise preferred forms of putting the invention into effect. The invention is, therefore, claimed in any of its forms or modifications within the proper scope of the appended claims appropriately interpreted by those skilled in the art.