JP6281804B2 - Automatic switch with hot wire sensor - Google Patents

Description

  The present invention relates to an automatic switch with a heat ray sensor that controls lighting / extinguishing of a lighting load.

  2. Description of the Related Art Conventionally, an automatic switch with a heat ray sensor that controls lighting / extinguishing of a lighting load has been provided.

  As this type of automatic switch with a heat ray sensor, for example, when a heat ray sensor detects a person, an illumination load is lit during the operation holding time (see Patent Document 1).

  The automatic switch 101 with a heat ray sensor of Patent Document 1 shown in FIG. 16 can switch the operation mode of the automatic switch 101 with a heat ray sensor by pressing the operation handle 103. The automatic switch 101 with a heat ray sensor has a mode for controlling lighting of an illumination load when the heat ray sensor detects a heat ray as an operation mode. The automatic switch 101 with a heat ray sensor has a mode for continuing the state of the illumination load as an operation mode regardless of whether or not the heat ray is detected by the heat ray sensor. The automatic switch 101 with a heat ray sensor has a mode in which the state of the illumination load is maintained until the operation holding time elapses as an operation mode. Further, the automatic switch 101 with a heat ray sensor emits the irradiation light from the light emitting diode housed in the body 102 forward from the through hole 136 of the operation handle 103 through the light guide member held by the operation handle 103. . The automatic switch 101 with a heat ray sensor includes a handle cover 104 that covers the operation handle 103. In the automatic switch 101 with a heat ray sensor, the operation mode of continuous lighting, automatic lighting, and forced extinction of the lighting load can be displayed depending on the color and lighting state of the light emitting diode.

JP 2008-109511 A

  By the way, in the automatic switch 101 with a heat ray sensor, it may be difficult for the user to easily determine whether the lighting load is automatically turned on or whether the lighting load is continuously turned on based on the detection result of the heat ray sensor. is there. At the present time, there is a demand for an automatic switch with a heat ray sensor that has better operability and is easier to use. The above-described configuration of the automatic switch 101 with a heat ray sensor is not sufficient, and further improvements are required.

  This invention is made | formed in view of the said reason, The objective is to provide the automatic switch with a heat ray sensor more excellent in operativity.

Hot wire automatic switch with sensor of the present invention, a heat ray sensor part for detecting a heat ray emitted from the human body, an input determination unit for determining the on / off operation of the operating switches that are operated manually, from the hot wire sensor unit a control unit for outputting a control signal for controlling the on / off of the lighting load based on the determination signal from the sensor signal and the input determination unit, power to the lighting load based on the control signal from the control unit manual and switch to turn on and off the supply of, a hot wire automatic switch with sensor and a vessel for housing therein a at least the control unit and the switch, the operating switch is pushed manually an operation unit, the other end one end of the manual operating section is supported by the unit side has a pivotable press operation capable piano handle, the control unit may push to the manual operating section by the operation, A continuous lighting mode to the serial lighting load is continuously lit, the automatic lighting off-mode to the off state after the elapse of the lighting load was the lighting state predetermined lighting holding time in response to the sensor signal from the hot wire sensor unit When switches the modes forced off mode for turning off the lighting load, to display the switched modes to the mode display unit provided in the manual operating section, the mode display unit is different emission colors from each other a plurality of light emitting diodes comprises a plurality of the light guide member, the plurality of light emitting diodes, the device is provided in the body, the plurality of the light guide member, the corresponding said plurality of light emitting diodes It is arranged in the manual operating section so that the irradiation light can be emitted to the outside from the control unit in response to switching of the modes, the plurality of light emitting die Wherein among the over de cause the light emitting diode corresponding to each mode one-to-one, characterized in that to be displayed on the mode display unit to repeat that shifts the modes sequentially.

  In the automatic switch with a heat ray sensor, the control unit is electrically connected to a plurality of light emitting diodes, and individually controls lighting of the plurality of light emitting diodes corresponding to each of the modes. The mode display unit preferably displays each mode by light emission from the light emitting diode corresponding to each mode.

  The automatic switch with a heat ray sensor of the present invention has an effect that it is possible to make the configuration more excellent in operability.

FIG. 1 is a front view for explaining the automatic switch with a heat ray sensor of the present embodiment. FIG. 2 is a block diagram of an automatic switch system with a heat ray sensor using the automatic switch with a heat ray sensor of the present embodiment. FIG. 3 is an external perspective view showing the automatic switch with a heat ray sensor of the present embodiment. FIG. 4 is an exploded perspective view of the automatic switch with a heat ray sensor of the present embodiment. FIG. 5 is an exploded perspective view of the main part of the automatic switch with a heat ray sensor of the present embodiment. FIG. 6 is a front view of another main part of the automatic switch with a heat ray sensor of the present embodiment. 7 is an AA cross-sectional view of the automatic switch with a heat ray sensor of FIG. 8 is a BB cross-sectional view of the automatic switch with a heat ray sensor in FIG. FIG. 9 is a partially enlarged view of the automatic switch with a heat ray sensor in FIG. FIG. 10 is a CC cross-sectional view of the automatic switch with a heat ray sensor of FIG. FIG. 11 is a partially enlarged view of the automatic switch with a heat ray sensor of FIG. FIG. 12 is a front view showing another main part of the automatic switch with a heat ray sensor of the present embodiment. FIG. 13 is a rear perspective view showing still another main part of the automatic switch with a heat ray sensor of the present embodiment. FIG. 14 is a front view showing still another main part of the automatic switch with a heat ray sensor of the present embodiment. FIG. 15 is an operation explanatory diagram illustrating the operation of the automatic switch with a heat ray sensor of the present embodiment. FIG. 16 is an external perspective view of a conventional automatic switch with a heat ray sensor.

  Hereinafter, the automatic switch 10 with a heat ray sensor of this embodiment is demonstrated based on FIG. 1 thru | or FIG. Moreover, the automatic switch system 30 with a heat ray sensor provided with the automatic switch 10 with a heat ray sensor of this embodiment and the operation element 20 which can operate the automatic switch 10 with a heat ray sensor is demonstrated based on FIG. 2 and FIG. To do. In addition, in the figure, the same number is attached | subjected with respect to the same member, and the overlapping description is abbreviate | omitted.

  The automatic switch 10 with a heat ray sensor of this embodiment is provided with the heat ray sensor part 1 which detects the heat ray emitted from a human body, as shown in FIG. The automatic switch 10 with a heat ray sensor includes an input determination unit 2 (hereinafter also referred to as a first input determination unit 2) that determines an on / off operation of an operation switch 2a (hereinafter also referred to as a first operation switch 2a) operated manually. (Refer to FIG. 2). The automatic switch with heat ray sensor 10 includes a control unit 4 that outputs a control signal for controlling lighting / extinguishing of the illumination load L based on a sensor signal from the heat ray sensor unit 1 and a discrimination signal from the input discrimination unit 2. Yes. The automatic switch 10 with a heat ray sensor includes a switch 5 that turns on and off the supply of power to the illumination load L based on a control signal from the control unit 4. The automatic switch 10 with a heat ray sensor includes a container 11 that houses at least the control unit 4 and the switch 5 (see FIG. 3).

  The operation switch 2a includes a manual operation unit 2a1 that is manually pressed. The operation switch 2a is a piano handle in which one end portion of the manual operation portion 2a1 is supported on the body 11 side and the other end portion can be pushed and operated in a swingable manner. The control unit 4 switches between the continuous lighting mode, the automatic lighting on / off mode, and the forced lighting off mode by a pressing operation on the manual operation unit 2a1. In the continuous lighting mode, the controller 4 lights the illumination load L continuously. In the automatic light on / off mode, the control unit 4 turns on the lighting load L according to the sensor signal from the heat ray sensor unit 1 and turns off the light after a predetermined lighting holding time elapses. The control unit 4 turns off the illumination load L in the forced turn-off mode. The control unit 4 displays each switched mode on the mode display unit 6 provided in the manual operation unit 2a1.

  In the automatic switch 10 with a heat ray sensor shown in FIG. 1, the continuous lighting mode is displayed as “continuous on”. Moreover, in the automatic switch 10 with a heat ray sensor shown in FIG. 1, the automatic light on / off mode is displayed as “automatic”. Furthermore, in the automatic switch 10 with a heat ray sensor shown in FIG. 1, the forced light-off mode is displayed as “OFF”.

  Thereby, the automatic switch 10 with a heat ray sensor of this embodiment has an effect that it becomes possible to set it as the structure excellent in operability.

  The automatic switch 10 with a heat ray sensor of the present embodiment can be switched to each mode of the automatic switch 10 with a heat ray sensor by a relatively simple operation because the operation switch 2a is a piano handle. Become. Moreover, the automatic switch 10 with a heat ray sensor of this embodiment can recognize the switched mode easily with the mode display part 6 provided in the manual operation part 2a1. The automatic switch 10 with a heat ray sensor of the present embodiment incorrectly recognizes that the current mode is the automatic lighting / extinguishing mode, and the lighting load L remains in a lighting state against the user's intention. It becomes possible to suppress.

  Hereinafter, the whole automatic switch system 30 with a heat ray sensor using the automatic switch 10 with a heat ray sensor of this embodiment is explained in full detail previously.

  As shown in FIG. 2, the automatic switch system 30 with a heat ray sensor includes the automatic switch 10 with a heat ray sensor of the present embodiment and an operation unit 20. The automatic switch 10 with a heat ray sensor of the present embodiment includes a heat ray sensor unit 1 that detects a heat ray emitted from a human body and a first input determination unit that determines an on / off operation of a first operation switch 2a that is manually operated. 2 are provided. The automatic switch 10 with a heat ray sensor preferably includes a signal receiving unit 3 that receives a signal from the operation unit 20. The automatic switch with heat ray sensor 10 controls lighting / extinguishing of the illumination load L based on the sensor signal from the heat ray sensor unit 1, the discrimination signal from the first input discrimination unit 2, and the signal received by the signal receiving unit 3. A control unit 4 that outputs a control signal is provided. The automatic switch 10 with a heat ray sensor includes a switch 5 that turns on and off the supply of power to the illumination load L based on a control signal from the control unit 4. In the automatic switch 10 with a heat ray sensor, the mode is switched each time the first operation switch 2a is operated, and the mode display unit 6 displays the mode.

  The operating unit 20 includes a second input determining unit 22 that determines whether the second operation switch 22a that is manually operated is turned on or off, and an automatic operation with a heat ray sensor based on an operation signal from the second input determining unit 22. And a signal transmission unit 23 for transmitting a signal to the switch 10.

The control unit 4 of the automatic switch 10 with a heat ray sensor turns on the lighting load L in accordance with the sensor signal from the heat ray sensor unit 1 and turns the switch 5 so that it is turned off after a predetermined lighting holding time elapses. it can be controlled (see time _{t 2} from time _{t 1} in Figure 15). In this case, in the automatic switch 10 with a heat ray sensor, the mode display unit 6 displays an automatic light on / off mode. Moreover, in the automatic switch 10 with a heat ray sensor of the present embodiment, the control unit 4 keeps lighting when the signal receiving unit 3 receives a signal for turning off the lighting load L from the operation unit 20 while the lighting load L is in a lighting state. Reduce time. When the signal receiving unit 3 receives a signal for turning off the lighting load L from the operation unit 20 while the lighting load L is in a lighting state, the control unit 4 prohibits lighting of the lighting load L by a sensor signal from the heat ray sensor unit 1. it can be (see time _{t 7} from the time _{t 4} in Figure 15). Thereby, the automatic switch system 30 with a heat ray sensor has a configuration capable of further energy saving.

  Hereinafter, the more specific structure of the automatic switch 10 with a heat ray sensor of this embodiment is demonstrated.

  The automatic switch 10 with a heat ray sensor of this embodiment is attached to the attachment frame 17 (refer FIG. 4) installed in construction surfaces (not shown), such as the wall surface of a building, as shown in FIG. The automatic switch 10 with a heat ray sensor includes a container body 11 that is embedded on the construction surface side. The automatic switch 10 with a heat ray sensor suitably includes a frame-shaped plate 9 provided on the opposite side of the container body 11 via an attachment frame 17. The automatic switch 10 with a heat ray sensor includes a circuit unit 16 capable of controlling the lighting load L to be turned on and off inside the container 11 (see FIG. 4). The circuit unit 16 includes, for example, a first circuit board 16a on which various electronic components 16aa are mounted. The first circuit board 16a is formed of a flat printed wiring board having a rectangular outer shape. The circuit unit 16 includes a first circuit board 16a and a second circuit board 16c via a flat insulating plate 16b. Similar to the first circuit board 16a, the second circuit board 16c has various electronic components 16aa mounted thereon. The circuit unit 16 electrically connects the first circuit board 16a and the second circuit board 16c with an electric wire (not shown). The second circuit board 16c is formed of a flat printed wiring board having a rectangular outer shape.

  The automatic switch 10 with a heat ray sensor includes a heat ray sensor unit 1 that detects a heat ray emitted from a human body. The heat ray sensor unit 1 includes a sensor element 1a. The sensor element 1a can be configured using an infrared sensor capable of detecting the presence or absence of a human body by detecting infrared energy as a heat ray emitted from the human body. A pyroelectric element can be used for the infrared sensor. The automatic switch 10 with a heat ray sensor includes a setting operation unit 7 that can set the detection sensitivity of the heat ray sensor unit 1.

  The setting operation unit 7 can set the detection sensitivity of the heat ray sensor unit 1. The setting operation unit 7 is not limited to one that can set the detection sensitivity of the heat ray sensor unit 1. The setting operation unit 7 may include an operation unit capable of setting a lighting holding time in the automatic lighting / unlighting mode. In addition, the automatic switch 10 with a heat ray sensor of this embodiment will turn on the illumination load L by the sensor signal from the heat ray sensor unit 1 when the signal receiving unit 3 receives a signal for turning off the illumination load L from the operation unit 20. A mask period M to be prohibited is provided for a predetermined period (see FIG. 15). The setting operation unit 7 may include an operation unit that can set the mask period M in the automatic on / off mode. That is, the setting operation unit 7 can appropriately adjust the length of the lighting holding time for receiving and shortening the signal from the operation unit 20.

  The setting operation unit 7 exposes a part of the setting operation unit 7 to the surface 11 bp of the body 11. The automatic switch 10 with a heat ray sensor forms a first input determination unit 2 in the circuit unit 16 for determining an on / off operation of a first operation switch 2a (see FIG. 3) that is manually operated. In the automatic switch 10 with a heat ray sensor, a signal receiving unit 3 that receives a signal from the operation unit 20 is formed in the circuit unit 16.

  The signal receiving unit 3 can receive a signal from the operation unit 20. As the signal receiving unit 3, one that receives a signal from the operation unit 20 by wire can be used. The signal receiving unit 3 is not limited to the one that receives the signal from the operation unit 20 by wire, and may be one that receives wirelessly using radio waves of various wavelengths, visible light communication, or the like.

The automatic switch with heat ray sensor 10 controls lighting / extinguishing of the illumination load L based on the sensor signal from the heat ray sensor unit 1, the discrimination signal from the first input discrimination unit 2, and the signal received by the signal receiving unit 3. A control unit 4 that outputs a control signal is formed in the circuit unit 16. The control unit 4 can be configured by a microcomputer or the like. The automatic switch 10 with a hot-wire sensor forms a switch 5 in the circuit unit 16 that turns on and off the supply of power to the illumination load L based on a control signal from the control unit 4. The switch 5 includes an opening / closing element 5a and an opening / closing drive unit 5b. Control unit 4, the switching element 5 a as a bidirectional thyristor connecting the complementary two thyristors in antiparallel, activatable be controlled via the opening and closing drive unit 5b. The automatic switch 10 with a heat ray sensor has a DC stabilized power supply 4c that receives a commercial power supply AC and generates a DC constant voltage in the circuit unit 16. The automatic switch 10 with a heat ray sensor is configured so that a series circuit of a commercial power supply AC and a lighting load L can be electrically connected (see FIG. 2).

  The circuit part 16 can form the heat ray sensor part 1, the 1st input discrimination | determination part 2, the signal receiving part 3, and the control part 4 in the 1st circuit board 16a, for example. Moreover, the circuit part 16 can also form the direct current | flow stabilized power supply 4c and the switch 5 in the 2nd circuit board 16c, for example. The DC stabilized power supply 4c is electrically connected to the commercial power supply AC via the power supply terminals 11c1 and 11c2 of the automatic switch 10 with a heat ray sensor. The switch 5 is electrically connected between a power supply terminal 11c1 that connects the commercial power supply AC and a load terminal 11c4 that connects the illumination load L.

  In the automatic switch 10 with a heat ray sensor, a sensor signal from the heat ray sensor unit 1, a discrimination signal from the first input discrimination unit 2, and a signal from the operation unit 20 received by the signal receiving unit 3 are input to the control unit 4. Is done. In the control unit 4, the output of the heat ray sensor unit 1 that is a sensor signal from the heat ray sensor unit 1 is A / D converted and input. The control unit 4 receives the output of the first input determination unit 2 after A / D conversion. The control unit 4 receives the output of the signal receiving unit 3 after A / D conversion. The control unit 4 can detect the presence / absence of a human body in a preset detection area based on the sensor signal from the heat ray sensor unit 1 and can output a control signal for controlling the switch 5.

The automatic switch 10 with a heat ray sensor preferably includes a brightness sensor 1s that can identify ambient brightness. The brightness sensor 1s can be configured using, for example, a light receiving element such as CdS or a photodiode. In the automatic switch 10 with a heat ray sensor, the light receiving element of the brightness sensor 1s is mounted on the first circuit board 16a. The control unit 4 is electrically connected to the brightness sensor 1s. The brightness sensor 1s may be configured integrally with the heat ray sensor unit 1. The automatic switch 10 with a heat ray sensor includes a mode display unit 6 that displays an operation mode of the control unit 4 (see FIG. 1). In the automatic switch 10 with a heat ray sensor, a plurality of (here, three) light emitting diodes 6a constituting the mode display unit 6 are mounted on the first circuit board 16a. Control unit 4, respectively each of the light emitting diode 6a of the mode display unit 6 are electrically connected. The control unit 4 changes the mode every time the first operation switch 2a is operated. The control unit 4 displays the changed mode on the mode display unit 6 every time the first operation switch 2a is operated.

  When the control unit 4 determines that a human body is present in the detection area of the heat ray sensor unit 1 in the automatic light on / off mode, the control unit 4 turns on the illumination load L according to the sensor signal from the heat ray sensor unit 1 and maintains the predetermined lighting. Turn off after time. The control unit 4 has a built-in timer unit (not shown) for measuring the lighting holding time during which the illumination load L is lit. When the sensor signal is input again from the heat ray sensor unit 1 while the lighting holding time is being measured, the control unit 4 turns off the lighting load L after a predetermined lighting holding time from the time when the sensor signal is input again. It is configured. Therefore, the timer unit constitutes a retriggerable timer so that a predetermined lighting holding time can be measured from the time when the sensor signal is re-input.

  As a basic operation of the control unit 4, the control unit 4 changes the heat ray incident on the heat ray sensor unit 1 in a state where the brightness detected by the brightness sensor 1 s is darker than a preset brightness threshold. When a human body is detected based on the lighting load L, the lighting load L is turned on. The control unit 4 controls the switch 5 so as to maintain the lighting state of the lighting load L for a predetermined lighting holding time counted by the timer unit. In addition, the automatic switch 10 with a heat ray sensor can also adjust the electric power supplied to the illumination load L by the control part 4, and can also light the illumination load L with a desired light output. The automatic switch 10 with a heat ray sensor accommodates at least the control unit 4 and the switch 5 in the body 11 by housing the circuit unit 16 in the body 11.

  As shown in FIG. 4, the container body 11 includes a body body 11a and a cover body 11b. The body body 11a and the cover body 11b are configured to be separable. The container body 11 has a rectangular parallelepiped shape, and includes a bottomed rectangular tube-shaped body body 11a and a bottomed rectangular tube-shaped cover body 11b. The body body 11a and the cover body 11b constitute a box-shaped body having a hollow inside by fitting the body body 11a and the cover body 11b together. The body body 11a is formed of an electrically insulating resin material. The body 11a can be formed using, for example, urea resin as an electrically insulating resin material. The body body 11a can be formed, for example, as an integrally molded product by injection molding in which an electrically insulating resin material heated and melted is injected and injected into a mold. The cover body 11b is formed of an electrically insulating resin material. The cover body 11b can be formed using, for example, urea resin as an electrically insulating resin material. The cover body 11b can be formed as an integrally molded product by, for example, injection molding in which an electrically insulating resin material heated and melted is injected into a mold and cooled and solidified.

  In the automatic switch 10 with a heat ray sensor, the size of the body 11 is set to a size of a series of modules corresponding to three modules of the embedded wiring device. The body 11 has a size in the short direction of the body 11 that is rectangular when viewed from the front, and is slightly smaller than the size in the short direction of the window hole 17aa in the mounting frame 17 for the embedded wiring device.

  The body body 11a includes an engagement protrusion 11ac that engages with the cover body 11b side. The engaging protrusions 11ac are provided in pairs along the short direction of the upper and lower sides of the body body 11a (upper and lower sides of the paper surface of FIG. 4). The body 11a accommodates terminals 11c that become power terminals 11c1 and 11c2, load terminals 11c3 and 11c4, and handset connection terminals 11c5 and 11c6. That is, the automatic switch 10 with a heat ray sensor includes a terminal 11c to which an electric wire (not shown) is connected. The terminal 11c includes a lock spring 11ca and a terminal plate 11cb that accommodates the lock spring 11ca. When the electric wire is inserted, the terminal 11c is configured to be electrically connected to the electric wire and be fixed by the terminal plate 11cb and the lock spring 11ca. The lock spring 11ca can be formed, for example, by bending a plate material made of a metal material such as copper or copper alloy. Similarly, the terminal plate 11cb can be formed by bending a plate material made of a metal material such as copper or copper alloy, for example. That is, the terminal 11c constitutes a quick connection terminal in which electrical connection and mechanical connection with the electric wire are performed by inserting the core wire of the electric wire from which the insulation coating has been peeled off.

  The cover body 11b includes a pair of projecting pieces 11bc and 11bc projecting toward the body body 11a along the short direction of the upper and lower sides of the cover body 11b (upper and lower sides of the paper surface of FIG. 4). The protruding piece 11bc is configured to be elastically deformable with respect to the cylindrical portion of the bottomed rectangular cylindrical cover body 11b. The cover body 11b can be formed by integrally molding the cylindrical portion and the protruding piece 11bc. The protruding piece 11bc has a C-shaped outer shape, and an engaging hole 11bf is formed at a portion protruding from the tubular portion and exposed to the outside. The cover body 11b is configured to be able to engage the engagement hole 11bf of the protruding piece 11bc and the engagement protrusion 11ac of the body body 11a.

  The cover body 11b is fixed by positioning the cover body 11b on the body body 11a side by engaging the engagement protrusion 11ac of the body body 11a and the engagement hole 11bf corresponding to the engagement protrusion 11ac, respectively. can do. That is, the container body 11 is configured by fitting the body body 11a and the cover body 11b. The cover body 11b includes a mounting claw 11bd protruding from the side wall 11bb on the side wall 11bb in the short side direction. The cover body 11b can engage the instrument mounting hole 17ab of the mounting frame 17 and the mounting claw 11bd.

  The cover body 11b is provided with two cut grooves 11bg and 11bg along the thickness direction on both side portions of a portion where the pair of mounting claws 11bd and 11bd protrude from the side wall 11bb of the cover body 11b. The cover body 11b is provided with a bending piece 11be having flexibility in the thickness direction at a portion between the pair of mounting claws 11bd and 11bd. The cover body 11b is configured to bend the bending piece 11be to the inside of the cover body 11b.

  The mounting frame 17 is provided with a device mounting hole 17ab capable of mounting a wiring device on a side piece 17a constituting the mounting frame 17. The attachment frame 17 can hold | maintain the body 11 to the attachment frame 17 by engaging the attachment nail | claw 11bd of the cover body 11b with the instrument attachment hole 17ab. When the container body 11 is attached to the attachment frame 17, for example, the attachment claws 11 bd of one side wall 11 bb of the cover body 11 b are inserted into one instrument attachment hole 17 ab of the attachment frame 17. In addition, the attachment frame 17 can use not only the structure using the frame-shaped metal body shown in FIG. 4 but various structures as long as the container body 11 can be attached. . Next, the container body 11 inserts the cover body 11b into the window hole 17aa of the mounting frame 17 so that the mounting claws 11bd of the other side wall 11bb are bent to the inside of the cover body 11b. After the body 11 is inserted so as to be embedded in the mounting frame 17, the mounting claw 11 bd of the other side wall 11 bb of the cover body 11 b is inserted into the other instrument mounting hole 17 ab of the mounting frame 17. The body 11 is held by the mounting frame 17 when the mounting claws 11bd are inserted into the device mounting holes 17ab. In addition, when the container body 11 is removed from the mounting frame 17, the container body 11 pushes the bending piece 11be into the inside of the cover body 11b. The body 11 can be detached from the mounting frame 17 by the mounting claws 11bd coming out of the device mounting hole 17ab by the bending of the bending piece 11be.

  The attachment frame 17 includes a long hole 17ac for inserting the fixing screw 18 in the frame piece 17b constituting the attachment frame 17. The mounting frame 17 is configured such that, for example, fixing screws 18 inserted into the respective long holes 17ac are screwed into thread portions of an embedding box (not shown) embedded in the construction surface. Can be fixed to the construction surface side. The mounting frame 17 includes a screw hole 17ad for a plate screw in the frame piece 17b. Although not shown, the mounting frame 17 is screwed on the surface side using a rectangular frame-like plate frame (not shown) and a plate screw (not shown). The plate frame is detachably attached to the surface of the plate frame. The plate 9 is formed in a rectangular plate shape. The plate 9 can be formed of a synthetic resin.

  The plate 9 includes a window hole 9aa that is longer and wider than the window hole 17aa of the mounting frame 17. Similarly, the plate frame includes a hole that is longer and wider than the window hole 17aa of the mounting frame 17. As for the automatic switch 10 with a heat ray sensor, the 1st operation switch 2a is provided with the manual operation part 2a1. The manual operation portion 2a1 includes a lid portion 2g that is substantially flush with the surface 9ab of the plate 9 (see FIGS. 1, 3, 4, and 5). The manual operation unit 2 a 1 has a lid 2 g that covers the setting operation unit 7 in the frame of the plate 9. The manual operation portion 2a1 includes a handle portion 2f that removably holds the lid portion 2g (see FIGS. 4, 5, 11, and 12). The automatic switch 10 with a heat ray sensor forms an opening 2f1 in the handle portion 2f so that the setting operation portion 7 is exposed to the outside by removing the lid portion 2g of the manual operation portion 2a1 from the surface 9ab of the plate 9. (See FIGS. 5 and 12). The manual operation unit 2a1 includes claw portions 2g3 at the four corners of the lid 2g (see FIG. 13). The manual operation portion 2a1 includes a locking hole 2f2 at the position of the handle portion 2f corresponding to the claw portion 2g3 of the lid portion 2g (see FIGS. 5, 10, 11, and 12). The manual operation portion 2a1 is configured so that the claw portion 2g3 of the lid portion 2g can be detachably locked in the locking hole 2f2 of the handle portion 2f.

  The cover body 11b includes window holes 11bh and 11bi having a circular shape in plan view on the upper side of the cover body 11b (upper side of the paper surface of FIG. 4). The cover body 11b includes three window holes 11bj having a rectangular shape in plan view along the short direction of the cover body 11b at the center of the cover body 11b. The cover body 11b includes a protrusion 11bk that protrudes toward the surface 11bp of the cover body 11b on the lower side of the cover body 11b (the lower side of the paper surface of FIG. 4). The cover body 11b includes an opening 11bm in the projecting portion 11bk.

  Further, since the cover body 11b is pivotally attached to the handle portion 2f of the manual operation portion 2a1, the shaft portion 11bn projecting to one side wall side (the left side of the paper surface of FIG. 4) of the surface 11bp of the cover body 11b in plan view. It has. The shaft portion 11bn is formed in a cylindrical shape along the longitudinal direction of the cover body 11b. In the cover body 11b, the shaft portion 11bn of the cover body 11b is pressed against the handle portion 2f side of the manual operation portion 2a1 by a metal leaf spring 2d (see FIGS. 8 and 9). In other words, the manual operation portion 2a1 is held on the cover body 11b side by sandwiching the shaft portion 11bn of the cover body 11b with the handle portion 2f and the leaf spring 2d of the manual operation portion 2a1. Further, the cover body 11b has a peripheral portion cut so that the end is held at the center of the surface 11bp of the cover body 11b and the tip on the other end side (the right side in FIG. 4) is T-shaped in plan view. A bent portion 11br is provided (see FIGS. 4 and 14). The bending portion 11br is configured to be bent inside the vessel body 11 by the pressing force from the handle portion 2f.

  The first operation switch 2a includes a manual operation unit 2a1 that is manually pressed. The first operation switch 2a is a piano handle in which one end portion of the handle portion 2f of the manual operation portion 2a1 is supported on the body 11 side and the other end portion can be pushed and operated in a swingable manner. That is, the first operation switch 2a constitutes a piano handle type switch. The piano handle type switch is configured such that the piano handle attached to the front side of the switch main body 2aa is pressed and rotated on the other side with the one side end of the piano handle serving as a fulcrum. The switch mechanism can be pressed. The piano handle type switch can be operated by a piano touch operation of the piano handle.

The manual operation portion 2a1 is configured to be able to contact a T-shaped bending portion 11br provided on the surface 11bp of the cover body 11b and provided at a portion facing the operation element 2ac (see FIG. 7). The manual operation unit 2a1 is supported on the container 11 side, and the back side of the manual operation unit 2a1 can be brought into contact with the bending portion 11br (see FIG. 8). The automatic switch 10 with a heat ray sensor is pushed toward the cover body 11b when the manual operation portion 2a1 is pushed. In the automatic switch 10 with a heat ray sensor, the operation element 2ac inside the vessel body 11 is pushed through the bending portion 11br by a push operation to the manual operation portion 2a1. In the automatic switch 10 with a heat ray sensor, the first operation switch 2a is turned on when the operation element 2ac is pressed. The first operation switch 2a, for example, may be used position-holding switch and time on and off the operator 2a c of the switch body 2aa is pressed is reversed. As the position holding type switch, a push lock switch, a push-on / push-off switch, or the like can be used. The automatic switch 10 with a heat ray sensor can be configured such that when the pressing force disappears from the manual operation unit 2a1, the manual operation unit 2a1 receives the reaction force of the operation element 2ac and returns to the original position. In the automatic switch 10 with a heat ray sensor, when the manual operation unit 2a1 returns to the original position, the first operation switch 2a is turned off.

  In the automatic switch 10 with a heat ray sensor of the present embodiment, a plurality (three in this case) of light guide members 6aa are provided at the center in the short direction of the manual operation unit 2a1 in the manual operation unit 2a1 having a rectangular front view. Protrudes to the back side (see FIGS. 10 and 13). The lid portion 2g of the manual operation portion 2a1 includes a rectangular plate-like front plate 2g1 provided on the one surface 2ab side to be pressed and a back plate 2g2 provided on the cover body 11b side (FIG. 13). The front plate 2g1 is formed integrally with the light guide member 6aa that has translucency and protrudes toward the cover body 11b. The manual operation part 2a1 is provided with a handle part 2a2 provided so as to overlap the protruding part 11kb of the heat ray sensor part 1. The handle portion 2a2 is provided with a hook recess 2a3 so that the lid portion 2g can be easily removed by hooking a finger (see FIG. 3). The manual operation portion 2a1 includes a through hole 2ca into which the light guide member 6aa protruding from the lid portion 2g of the manual operation portion 2a1 is fitted in the handle portion 2f of the manual operation portion 2a1 (see FIG. 5). The automatic switch 10 with a heat ray sensor is configured such that the light guide member 6aa protruding from the manual operation portion 2a1 can be inserted into and removed from the window hole 11bj of the cover body 11b. The light guide member 6aa is attached to the back side of the manual operation unit 2a1 in a state of being fitted into the through hole 2ca. The light guide member 6aa can be formed of a synthetic resin having translucency. The automatic switch 10 with a heat ray sensor can emit the irradiation light from the light emitting diode 6a provided in the body 11 to the outside through the light guide member 6aa held in the manual operation unit 2a1.

  The light emitting diode 6a constitutes the mode display section 6 capable of displaying the mode of the automatic switch 10 with a heat ray sensor, for example, depending on the color or lighting state. The automatic switch 10 with a heat ray sensor can be driven in a continuous lighting mode in which the illumination load L is continuously lit. Further, the automatic switch 10 with a heat ray sensor can be driven in an automatic light on / off mode in which the lighting load L is turned on in accordance with a sensor signal from the heat ray sensor unit 1 and is turned off after a predetermined lighting holding time elapses. it can. Furthermore, the automatic switch 10 with a heat ray sensor can be driven in a forced light-off mode in which the illumination load L is turned off. In the automatic switch 10 with a heat ray sensor, the control unit 4 switches between a continuous lighting mode, an automatic lighting on / off mode, and a forced lighting off mode by a pressing operation on the manual operation unit 2a1. The control unit 4 can display each switched mode on the mode display unit 6 provided in the manual operation unit 2a1.

  The control unit 4 is electrically connected to each of the plurality of light emitting diodes 6a. The control unit 4 controls lighting of the plurality of light emitting diodes 6a individually corresponding to each mode. The mode display unit 6 can display each mode separately by light emission from the light emitting diode 6a corresponding to each mode. More specifically, the automatic switch with a heat ray sensor 10 is, for example, one side in the short direction of the three light-emitting diodes 6a in the forced light-off mode in which power supply to the light load L is stopped and the light load L is turned off. The light emitting diode 6a provided on the left side of the paper surface of FIG. For example, the automatic switch 10 with a heat ray sensor may light up the light emitting diode 6a provided on one side in the short direction among the three light emitting diodes 6a in red. The automatic switch 10 with a heat ray sensor is, for example, short in the automatic light on / off mode in which the lighting load L is turned on in response to a sensor signal from the heat ray sensor unit 1 and turned off after a predetermined lighting holding time elapses. The light emitting diode 6a provided in the center of the direction is turned on. For example, the automatic switch 10 with a heat ray sensor may illuminate the light emitting diode 6a provided at the center in the short direction among the three light emitting diodes 6a in green. The automatic switch 10 with a heat ray sensor may blink the light emitting diode 6a provided in the center portion in green for a predetermined lighting holding time. The automatic switch 10 with a heat ray sensor may shorten the blinking interval of the light emitting diode 6a provided in the central portion as the remaining time of the predetermined lighting holding time decreases. In the continuous lighting mode in which the illumination load L is continuously lit, the automatic switch 10 with a heat ray sensor is provided, for example, on the other side in the short side direction (the right side of the drawing in FIG. 1) of the three light emitting diodes 6a. The light emitting diode 6a is turned on. For example, the automatic switch 10 with a heat ray sensor may illuminate the light emitting diode 6a on the other side in the lateral direction among the three light emitting diodes 6a in blue.

  The automatic switch 10 with a heat ray sensor has a frame-shaped plate 9 that is a decorative plate attached to the surface 11 bp of the body 11. In the automatic switch 10 with a heat ray sensor, the manual operation portion 2a1 of the first operation switch 2a is disposed in the window hole 9aa in the frame of the plate 9. Moreover, the automatic switch 10 with a heat ray sensor includes a decorative cover 1d on the lower side of the manual operation unit 2a1 (the lower side of the paper surface of FIG. 3). The decorative cover 1d includes an opening portion 1db at a position facing the opening 11bm of the cover body 11b. The decorative cover 1d has the protruding portion 11bk inserted through the opening portion 1db. The decorative cover 1d includes a protruding portion 11kb so as to protrude from one surface 2ab of the manual operation portion 2a1 and the surface 9ab of the plate 9. The protruding part 11kb has an arc shape so as to protect the protruding part 11bk.

  The heat ray sensor unit 1 includes, for example, a sensor element 1a such as a pyroelectric element and can detect heat rays from a human body existing in a preset detection area. The sensor element 1 a of the heat ray sensor unit 1 can be mounted on the first circuit board 16 a of the circuit unit 16.

  The automatic switch 10 with a heat ray sensor covers the sensor element 1a with a sensor cover 1aa. The sensor cover 1aa has a semi-cylindrical outer shape. In the heat ray sensor unit 1, the sensor element 1a detects a heat ray emitted from a human body via the sensor cover 1aa. The sensor cover 1aa may constitute a Fresnel lens that collects infrared rays. The automatic switch 10 with a heat ray sensor sandwiches the sensor cover 1aa between the cover body 11b of the container body 11 and the circuit unit 16, and is housed inside the container body 11.

  The automatic switch 10 with a heat ray sensor includes a pair of shutters 1b and 1b between a cover body 11b of the container 11 and the sensor cover 1aa. Each shutter 1b is integrally provided with a base 1ba having an arcuate outer shape and a handle part 1bb erected from one end of the base 1ba. Each shutter 1b is configured to be movable along the surface of the sensor cover 1aa. Each shutter 1b can cover a part of the sensor cover 1aa. Each shutter 1b can move the base 1ba by operating the handle part 1bb. The heat ray sensor unit 1 can adjust the detection region where the heat ray sensor unit 1 detects a human body by moving the base 1ba of each shutter 1b. The automatic switch 10 with a heat ray sensor can adjust the detection area of the heat ray sensor unit 1 and optimize the detection area of the human body.

  The first circuit board 16a has a plurality of (here, three) light emitting diodes 6a mounted thereon. The mode display unit 6 includes a light guide member 6aa that emits light emitted from the light emitting diode 6a to the outside. The light guide member 6aa is fitted into the through hole 2ca of the manual operation unit 2a1. The manual operation unit 2a1 covers the setting operation unit 7 exposed on the surface 11bp of the body 11 with the one surface 2ab of the manual operation unit 2a1 and the surface 9ab of the plate 9 being flush with each other. The light guide member 6aa is arranged so as to correspond to the light emitting diode 6a on the side of the body 11 in a state where the manual operation portion 2a1 covers the setting operation portion 7 of the body 11.

  In the automatic switch 10 with a heat ray sensor, electronic components constituting the signal receiving unit 3 are mounted on the first circuit board 16a. Further, the first circuit board 16 a is mounted with an electronic component for constituting the control unit 4. Furthermore, the first circuit board 16a may be mounted with various electronic components such as a fuse, a temperature fuse for suppressing abnormal heat generation, and a relay for preventing leakage. As the switch 5, the first circuit board 16a is mounted with an opening / closing element 5a constituting a main switch element and an opening / closing drive unit 5b for controlling the driving of the opening / closing element 5a. The first circuit board 16a can be mounted with a DC stabilized power supply 4c. The first circuit board 16a is mounted with light emitting diodes 6a, capacitors, electronic components such as resistors and relays. A wiring pattern (not shown) is formed on the first circuit board 16a so that it can be electrically connected to various electronic components. The light emitting diode 6a can display the continuous lighting mode, the automatic lighting on / off mode, and the forced lighting off mode on the mode display unit 6 by distinguishing between lighting and blinking of red light emission, green light emission, and blue light emission, for example. The light emitting diode 6a can also display the reception state of the signal receiving unit 3 in the automatic switch system 30 with a heat ray sensor.

  The circuit unit 16 has a switch body 2aa of the first operation switch 2a having an operation element 2ac pushed and driven by the manual operation unit 2a1 mounted on the first circuit board 16a. The circuit unit 16 has a volume or the like constituting the lighting holding time setting unit 7a for setting the lighting holding time of the illumination load L mounted on the first circuit board 16a. The circuit unit 16 has a rotary volume constituting the brightness sensor adjustment unit 7b for setting the level of brightness detected by the brightness sensor 1s mounted on the first circuit board 16a. The automatic switch 10 with a heat ray sensor houses a circuit unit 16 in a container 11.

  In the automatic switch 10 with a heat ray sensor, when the manual operation portion 2a1 is pressed, the bending portion 11br which is bent toward the inside of the body 11 pushes and drives the operation element 2ac of the switch body 2aa.

  For example, the lighting holding time setting unit 7a includes a knob 7a1 so that the operation shaft of the volume can be rotated. The lighting holding time setting unit 7 a protrudes the knob 7 a 1 of the lighting holding time setting unit 7 a toward the surface 11 bp side of the container body 11 through the window hole 11 bh of the container body 11. The lighting holding time setting unit 7a can set a lighting holding time for turning on the illumination load L in the automatic lighting on / off mode. When the automatic operation switch with a heat ray sensor 10 removes the manual operation unit 2a1 installed on the substantially same surface as the surface 9ab of the plate 9, the setting operation unit 7 is exposed.

  The automatic switch 10 with a heat ray sensor can appropriately set the lighting holding time in a range from 10 seconds to 30 minutes, for example. The automatic switch 10 with a heat ray sensor can appropriately adjust the lighting holding time of the illumination load L by the lighting holding time setting unit 7a. The brightness sensor adjustment unit 7b includes, for example, a knob 7b1 so that the operation shaft of the rotary volume can be rotated. The brightness sensor adjustment unit 7 b projects the knob 7 b 1 of the brightness sensor adjustment unit 7 b toward the surface 11 bp side of the vessel body 11 through the window hole 11 bi of the vessel body 11. The brightness sensor adjustment unit 7b can set the brightness detection level of the brightness sensor 1s in a range from “dark” (for example, 5 lx or less) to “bright” (for example, 100 lx or more), for example. For example, when the brightness sensor adjusting unit 7b is set to “OFF”, the automatic switch 10 with a heat ray sensor can stop the function of the brightness sensor 1s. When the brightness sensor adjustment unit 7b is set to “OFF”, the automatic switch with heat ray sensor 10 can prevent the lighting load L in the house from being turned on when the surroundings of the automatic switch with heat ray sensor 10 are bright. It becomes. The automatic switch 10 with a heat ray sensor can prevent the lighting load L in the house from being turned on when the surroundings are bright, and can save energy.

  In the automatic switch 10 with a heat ray sensor, for example, the brightness sensor adjustment unit 7b adjusts the brightness threshold value, and as a result, the detection sensitivity with which the heat ray sensor unit 1 detects the presence or absence of a person is set. The same effect as that obtained can be obtained. That is, in the automatic switch 10 with a heat ray sensor, the brightness sensor adjustment unit 7 b constitutes a setting operation unit 7 that sets the detection sensitivity of the heat ray sensor unit 1. In addition, the automatic switch 10 with a heat ray sensor may be provided with the setting operation part 7 which adjusts and sets the detection sensitivity of the heat ray sensor part 1 directly.

  Next, operation | movement of the automatic switch 10 with a heat ray sensor of this embodiment is explained in full detail using FIG.

Automatic switch 10 with heat ray sensor, for automatic On Off mode, the hot wire sensor unit 1 detects a change of the heat ray at time t _1, a heat ray sensor 1 outputs a sensor signal. In the automatic switch 10 with the hot wire sensor, “automatic” is displayed on the mode display unit 6 in the automatic on / off mode. In the automatic switch 10 with a heat ray sensor, the control unit 4 controls the switch 5 based on the sensor signal from the heat ray sensor unit 1 to turn on the illumination load L. Automatic switch 10 with heat ray sensor, counter to the timer unit of the control unit 4 has passed a predetermined time a sensor signal from the reception from the heat ray sensor 1 (see time t ₂ from time t ₁ in FIG. 15) Gradually decrease the value of. Hot wire sensor with automatic switch 10, after the time t ₂ the value of the counter of the timer section becomes "0", the control unit 4 is in unlit state lighting load L by controlling the switch 5. In other words, the automatic switch with a heat ray sensor 10 lights the lighting load L until a preset lighting holding time elapses.

Next, the automatic switch 10 with heat ray sensor, for the automatic lighting off mode, similarly to the time t _1, when the heat ray sensor 1 detects a change of the heat ray at time t _3, a heat ray sensor unit 1 outputs a sensor signal To do. In the automatic switch 10 with a heat ray sensor, the control unit 4 controls the switch 5 based on the sensor signal from the heat ray sensor unit 1 to turn on the illumination load L. Hot wire sensor with automatic switch 10 in the automatic lighting off mode, in the lighting load L lighting state, when receiving the signal receiver 3 in the operating element 20 time t ₄ a signal for turning off the lighting load L from the illumination load The lighting holding time for lighting L is shortened. Automatic switch 10 with heat ray sensor, than the time t ₅ the value from the time t ₃ when the control unit 4 by a sensor signal from the hot wire sensor unit 1 is in the lighting state lighting load L by the timer counter becomes "0" before the time t _4, the control unit 4 is in unlit state lighting load L by controlling the switch 5. That is, the automatic switch 10 with heat ray sensor, the lighting holding time from time t ₃ to time t _5, is reduced to from time t ₃ to time t _4. When the signal receiving unit 3 receives a signal for turning off the illumination load L from the operation unit 20, the automatic switch 10 with a heat ray sensor turns on the illumination load L by a sensor signal from the heat ray sensor unit 1 during the mask period M. Forbidden for a predetermined period of time, the lighting load L is kept off. Hot wire sensor with automatic switch 10, for example, during the masking period M from the time t ₄ when the illumination load L to off state until time t _7, the control unit 4 of the sensor signal from the hot wire sensor unit 1 at time t ₆ receives However, the lighting load L is kept off. In the automatic switch 10 with a heat ray sensor, when the light-off state is continued, for example, “OFF” can be displayed on the mode display unit 6. Automatic switch 10 with heat ray sensor, after a mask period M at time t _7, returns to the automatic lighting off mode to allow light the illumination load L in response to the sensor signal from the hot wire sensor unit 1. In the automatic switch 10 with a heat ray sensor, “automatic” can be displayed again on the mode display unit 6 upon returning to the automatic on / off mode.

  In addition, whenever the 1st operation switch 2a is operated, the automatic switch 10 with a heat ray sensor switches a continuous lighting mode, an automatic lighting on / off mode, and a forced lighting off mode. The mode display unit 6 displays “continuous on” in the continuous lighting mode. The mode display unit 6 displays “automatic” in the automatic on / off mode. The mode display unit 6 displays “OFF” in the forced extinction mode. In the automatic switch 10 with a heat ray sensor, each mode is repeatedly changed in the order of “OFF”, “AUTO”, and “CONTINUOUS ON” according to the switching of the operation mode.

  The automatic switch system 30 with a heat ray sensor can turn off the illumination load L by operating the operation child device 20 by a person even if the operation child device 20 is provided in the detection area of the heat ray sensor unit 1, for example. Moreover, the automatic switch system 30 with a heat ray sensor shortens the lighting holding time for lighting the illumination load L in the automatic lighting / off mode. The automatic switch system 30 with a heat ray sensor can save energy without the heat ray sensor unit 1 detecting a person operating the operation unit 20 and turning on the illumination load L.

  The operation unit 20 can operate the automatic switch 10 with a heat ray sensor. The operation unit 20 transmits a signal for controlling the automatic switch 10 with a heat ray sensor to operate the automatic switch 10 with a heat ray sensor. The operating unit 20 only needs to be able to transmit a signal for controlling the automatic switch 10 with a heat ray sensor. The second input determining unit 22 that determines the on / off operation of the manually operated second operating switch 22a, A slave unit control unit 24 that controls the signal transmission unit 23 based on an operation signal from the input determination unit 22 can be provided. The operation child device 20 may include a child device control unit 24 that controls a signal transmission unit 23 that transmits a signal to the automatic switch 10 with a heat ray sensor based on an operation signal from the second input determination unit 22. The operation unit 20 may be a device that transmits a signal to the automatic switch 10 with a heat ray sensor by wire, or a device that wirelessly transmits a signal to the automatic switch 10 with a heat ray sensor. In the automatic switch system 30 with a heat ray sensor, for example, when a person away from the automatic switch 10 with a heat ray sensor operates the operation unit 20, power supply to the lighting load L side and power supply stop can be performed. In the automatic switch 10 with a heat ray sensor, for example, the internal signal receiving unit 3 receives a signal from the operation unit 20, and the control unit 4 supplies power to the lighting load L side based on the signal from the operation unit 20. Switch between stopping power supply.

  Hereinafter, each structure used for the automatic switch 10 with a heat ray sensor of this embodiment is demonstrated in detail.

  The heat ray sensor unit 1 can detect the presence or absence of a human body. The automatic switch 10 with a heat ray sensor includes a heat ray sensor unit 1 such as a human sensor in order to supply power to the illumination load L and stop the power supply in the presence or absence of a human body. The heat ray sensor unit 1 can use, for example, an infrared sensor that detects the presence of a human body by detecting infrared energy as a heat ray from the human body. The infrared sensor may be configured to include a sensor element 1a such as a pyroelectric element, for example. For example, the heat ray sensor unit 1 may be configured integrally with a brightness sensor 1s such as CdS or a photodiode so that ambient brightness can be identified by the brightness sensor 1s. The heat ray sensor unit 1 can mount the sensor element 1 a on the first circuit board 16 a of the circuit unit 16. The heat ray sensor unit 1 includes a protruding portion 11 kb that protrudes from the front of the first operation switch 2 a in order to ensure a viewing angle.

  The first input determination unit 2 receives a signal from the first operation switch 2a. The first operation switch 2a can be switched by manually pressing the switch. The first input determination unit 2 receives a signal from the first operation switch 2a. The first input determination unit 2 can determine an on / off operation by a switch operation of the first operation switch 2a. The first operation switch 2a includes a manual operation unit 2a1 that is manually pressed. The operation switch 2a is a piano handle in which one end portion of the manual operation portion 2a1 is supported on the body 11 side and the other end portion can be pushed and operated in a swingable manner.

  The manual operation unit 2a1 constitutes a part of the operation switch 2a that is manually pressed. Manual operation part 2a1 can be constituted using cover part 2g, handle part 2f, and cover body 11b. The lid 2g can be configured to include a front plate 2g1 provided on the one surface 2ab side to be pressed and a back plate 2g2 provided on the cover body 11b side. The front plate 2g1 can be formed integrally with the light guide member 6aa that has translucency and protrudes toward the cover body 11b. The manual operation unit 2a1 is not limited to the one that integrally forms the light guide member 6aa and the front plate 2g1 constituting the mode display unit 6, and may be formed as a separate body. The manual operation part 2a1 is suitably provided with a handle part 2a2 provided so as to overlap with the protruding part 11kb of the heat ray sensor part 1. The handle portion 2a2 is suitably provided with a hook recess 2a3 so that the lid portion 2g can be easily removed by hooking a finger.

  The control unit 4 can determine whether the lighting load L is turned on / off based on at least the sensor signal from the heat ray sensor unit 1, the determination signal from the first input determination unit 2, and the signal received by the signal reception unit 3. It is a thing. The control unit 4 performs control so as to perform electrical connection and disconnection between the power feeding side and the lighting load L side. The control unit 4 has a function of controlling conduction and non-conduction of a semiconductor switch element such as a bidirectional thyristor that connects two complementary thyristors in antiparallel. Moreover, the control part 4 switches each mode in continuous lighting mode, automatic lighting on / off mode, and forced lighting off mode in the automatic switch 10 with a heat ray sensor by pushing operation to the manual operation part 2a1, and the mode display part 6 The light emitting diodes 6a can be controlled to be turned on. The control unit 4 can be configured using, for example, a microcomputer provided with a CPU (Central Processing Unit).

  The switch 5 can turn on or off the lighting load L based on a control signal from the control unit 4. The switch 5 is electrically connected between a power supply terminal 11c1 that connects the commercial power supply AC and a load terminal 11c4 that connects the illumination load L. The switch 5 may be a mechanical switch having a movable contact and a fixed contact in addition to an electronic switch having a semiconductor switch element as a main switch element.

  The mode display unit 6 can display each mode by the light emission from the light emitting diode 6 a corresponding to each mode by the control unit 4. The mode display unit 6 can be provided in the manual operation unit 2a1. Each light emitting diode 6a may use the same thing, and may comprise using the light emitting diode 6a of a different luminescent color.

  The container 11 can accommodate the heat ray sensor unit 1, the input determination unit 2, the control unit 4, and the switch 5. The body 11 only needs to be able to accommodate the heat ray sensor unit 1, the input determination unit 2, the control unit 4, and the switch 5, and can be formed in various shapes. Moreover, the container 11 can be formed with various materials, for example, can be formed using urea resin etc. as an electrically insulating resin material.

L Lighting load 1 Heat ray sensor part 2 Input discrimination part (1st input discrimination part)
2a Operation switch (first operation switch)
2a1 Manual operation unit 4 Control unit 5 Switch 6 Mode display unit 6a Light emitting diode 10 Automatic switch with hot wire sensor 11 Body

Claims (2)

A heat ray sensor unit for detecting heat rays emitted from the human body;
An input discriminating unit for discriminating on / off operation of the manually operated operation switch;
A control unit that outputs a control signal that controls lighting / extinction of a lighting load based on a sensor signal from the heat ray sensor unit and a determination signal from the input determination unit;
With a heat ray sensor provided with a switch that turns on and off the supply of power to the lighting load based on the control signal from the control unit, and a container that houses at least the control unit and the switch An automatic switch,
The operation switch includes a manual operation unit that is manually pressed, one end portion of the manual operation unit is supported on the instrument body side, and the other end portion is a piano handle that can be pushed and operated swingably.
The control unit causes the lighting load to be lit in accordance with a continuous lighting mode in which the lighting load is continuously lit by a push operation to the manual operation unit, and the sensor signal from the heat ray sensor unit. A mode display unit that switches between an automatic on / off mode that turns off after the lighting holding time elapses and a forced off mode that turns off the lighting load, and the switched mode display unit is provided in the manual operation unit Displayed on the
The mode display unit includes a plurality of light emitting diodes having different emission colors and a plurality of light guide members,
The plurality of light emitting diodes are provided in the container,
The plurality of light guide members are arranged side by side in the manual operation unit so that irradiation light from the corresponding plurality of light emitting diodes can be emitted to the outside.
The controller repeatedly emits light from the light emitting diodes corresponding to the respective modes among the plurality of light emitting diodes in response to the switching of the modes, and sequentially changes the modes. An automatic switch with a heat ray sensor, which is displayed on the mode display unit. The controller is electrically connected to the plurality of light emitting diodes, and controls lighting of the plurality of light emitting diodes corresponding to each of the modes,
2. The automatic switch with a heat ray sensor according to claim 1, wherein the mode display unit displays each mode by light emission from the light emitting diode corresponding to each mode.

Images