TWM535385U - Light sensing sequence recording system - Google Patents

Description

Photosensitive sequential recording system

This creation is about a sequential recording system, especially a photosensitive sequential recording system.

The light-emitting diode string has a plurality of types, wherein the light-emitting diode unit of the light-emitting diode string has an address code, and the related art light-emitting signal controller sequentially transmits the plurality of light-emitting signals to the plurality of light-emitting signals. a polar body unit, wherein each of the illuminating signals has a specific address code, and each of the illuminating diode units also has a bit address code; if the address code of the illuminating diode unit is When the specific address code of the illuminating signal is the same, the illuminating diode unit is driven to emit light by the illuminating signal.

When manufacturing the above-mentioned light-emitting diode string, the operator must carefully set the LED units in the order of the address code; for example, the LED unit with the address code 01 must be set. In the first position of the light-emitting diode units, the light-emitting diode unit having the address code of 02 must be disposed at the second position of the light-emitting diode units, and so on. Therefore, when the user designs the lighting command (where the lighting command includes a plurality of the lighting signals), the LED units can be driven to emit light correctly according to the user's concept sequence.

For example, if the user wants the light-emitting sequence to be: the light-emitting diode units in the fifth position, the fourth position, the third position, the second position, and the first position are sequentially illuminated, then the light is emitted. The command is intuitively designed by the user to: the illuminating signals having the specific address codes 05, 04, 03, 02, and 01 are sequentially sent to sequentially drive the address codes to 05, 04, and 03. The light emitting diode units of 02, 01.

If the light emitting diode units are not arranged in the order of the address code, for example, the light emitting diode unit having the address code 01 is erroneously disposed at the second position of the light emitting diode units, and has A light emitting diode unit having a address code of 02 is erroneously disposed at the first position of the light emitting diode units, and when the light emitting command (as in the above example) is designed to have a specific address code of 05, 04 The light-emitting diode units of 03, 02, and 01 are sequentially illuminated, and the light-emitting diodes are located at the fifth position, the fourth position, the third position, the first position, and the second position. The polar body unit will illuminate in sequence, which will be different from the user's hope.

Therefore, it is very important to set the light-emitting diode units in the order of the address codes; the order of setting the light-emitting diode units with the address codes cannot be any error.

In order to improve the above disadvantages of the prior art, the aim of the present invention is to provide a photosensitive sequential recording system.

In order to achieve the above object of the present invention, the photosensitive sequential recording system of the present invention comprises: a plurality of first light sensing elements; a photosensitive sequential recording unit, the photosensitive sequential recording unit is electrically connected to the first light sensing elements; a first grooved box, wherein the first grooved boxes are linearly arranged with each other and have a first fixed distance, and each of the first light sensing elements is disposed in a different one of the first grooved boxes a light-emitting signal controller electrically connected to the photosensitive sequential recording unit; and a light string comprising a plurality of first light-emitting diode units, the first light-emitting diodes The pole unit is electrically connected to the illuminating signal controller, and the first illuminating diode units are disposed outside the first gully box. The illuminating signal controller sequentially transmits a plurality of illuminating signals to the first illuminating diode units at different times; if the address code of the first illuminating diode unit is the same as the specific address code of the illuminating signal The first light emitting diode unit is driven to emit light by the light emitting signal, so that the first light sensing element facing the first light emitting diode unit senses light emitted by the first light emitting diode unit and transmits a photo-sensing signal to the photosensitive sequential recording unit; the photosensitive sequential recording unit records a photosensitive sequence of the photo-sensing signal respectively received by each of the first photo-sensing elements received by the photosensitive sequential recording unit and notifies the photo-sensing signal The illuminating signal controller is the photosensitive sequence.

The effect of this creation is to simplify the manufacturing process of setting the order of the light emitting diode units with address codes.

The detailed description and technical contents of the present invention are described in the following detailed description and the accompanying drawings.

Please refer to FIG. 1, which is a block diagram of a first embodiment of the photosensitive sequence recording system of the present invention. A photosensitive sequential recording system 10 includes a plurality of first light sensing elements 102, a photosensitive sequential recording unit 104, a plurality of first groove boxes 106, a light signal controller 108, a light string 11, and a first test platform 30. And a first mirror 50. The light string 11 includes a plurality of first light emitting diode units 110 and a connecting line 112.

The photosensitive sequence recording unit 104 is electrically connected to the first light sensing elements 102; the first groove boxes 106 are linearly arranged with each other and have a first fixed distance d1; the first light sensing elements 102 Each of the first light-emitting diodes 106 is electrically connected to the photosensitive sequential recording unit 104; the first light-emitting diode units 110 are electrically connected to each other. The first light emitting diode unit 110 is disposed outside the first recessed box 106, that is, each of the first light emitting diode units 110 is respectively connected to the light emitting signal controller 108. Correspondingly disposed on the outer side of each of the first recessed boxes 106; a part of the connecting line 112 is a straight line; the connecting line 112 is electrically connected to the illuminating signal controller 108 and the first illuminating diode units 110, and is used to connect the first light-emitting diode units 110 to each other; the first light-sensing elements 102, the light-sensing order recording unit 104, the first groove boxes 106, the light-emitting signal controller 108, The first light emitting diode unit 110, the Wiring 112 and the first reflection mirror 50 and disposed at the same level based on the first test platform 30.

The illuminating signal controller 108 sequentially transmits a plurality of illuminating signals S1 to the first illuminating diode units 110 at different times (again, the illuminating signal controller 108 sequentially transmits the first illuminating signals to the first illuminating diodes a specific address code of the illuminating signal S1 of the polar body unit 110 to obtain a transmission order); if the address code of the first illuminating diode unit 110 is the same as the specific address code of the illuminating signal S1, The first light-emitting diode unit 110 is driven to emit light by the light-emitting signal S1, so that the first light-sensing element 102 facing the first light-emitting diode unit 110 senses the light emitted by the first light-emitting diode unit 110. And transmitting a photo-sensing signal S2 to the photosensitive sequence recording unit 104; the photosensitive sequence recording unit 104 records the photo-sensing signal respectively received by the photosensitive sequence recording unit 104 and transmitted by each of the first photo-sensing elements 102 A light-sensing sequence of S2 and notifying the light-emitting signal controller 108 of the light-sensing sequence.

The following specific embodiment describes the operation flow of the photosensitive sequence recording system 10 described above, and for simplicity of description, only five of the first light-emitting diode units 110 are mentioned in the specific embodiment; the first address having the address code is 01 A light emitting diode unit 110 is disposed at a second position of the first light emitting diode units 110, and the first light emitting diode unit 110 having an address code of 02 is disposed at the first The first position of the light-emitting diode unit 110, and the remaining first light-emitting diode units 110 having the address codes of 03, 04, and 05 are sequentially disposed on the first light-emitting diode units 110. The third position, the fourth position, and the fifth position. The first LED unit 110 (ie, the first LED unit 110 having the address code of 02) in the first position of the first LED units 110 is Provided on the outside of the first one of the first groove boxes 106 from left to right as shown in FIG. 1 to be close to the first one of the first groove boxes 106 from the left and the right, and in the first The first LED unit 110 (ie, the first LED unit 110 having the address code 01) in the second position of the LED unit 110 is disposed as shown in FIG. Left and right, the outer portions of the second recessed boxes 106 are adjacent to the second of the first recessed pockets 106 from left to right, and so on.

The illuminating signal controller 108 sequentially transmits the illuminating signals S1 having the specific address codes 01, 02, 03, 04, and 05 to the first illuminating diode units 110 at different times (again, the illuminating The signal controller 108 obtains the transmission sequence as 01, 02, 03, 04, 05); that is, the illuminating signal controller 108 first transmits the illuminating signal S1 having a specific address code of 01 to the first illuminating two The illuminating signal controller 302 transmits the illuminating signal S1 having a specific address code of 02 to the first illuminating diode units 110, and so on.

When the first LED unit 110 having the address code of 01 receives the illuminating signal S1 having the specific address code of 01, the first illuminating diode unit 110 having the address code of 01 will be The illuminating signal S1 having a specific address code of 01 drives the illuminating (and the remaining first illuminating diode units 110 do not operate when receiving the illuminating signal S1 having the specific address code of 01), so that The first light sensing element 102 of the first LED unit 110 having the address code 01 senses the light emitted by the first LED unit 110 having the address code 01 and transmits the light sensor. The signal S2 to the light-sensing sequence recording unit 104; the first light-emitting diode unit 110 having the address code of 02 receives the light-emitting signal S1 having the specific address code of 02, and has the address code of 02. The first LED unit 110 is driven to emit light by the illuminating signal S1 having a specific address code of 02 (the remaining first illuminating diode units 110 receive the illuminating signal having a specific address code of 02). S1 does not act), so that the face with the address code is 02 The first light sensing element 102 of the first LED unit 110 senses light emitted by the first LED unit 110 having an address code of 02 and transmits the photo sensing signal S2 to the photosensitive sequential recording unit. 104, the rest of the way.

The photosensitive sequence recording unit 104 records the photosensitive sequence of the light sensing signal S2 received by the photosensitive sequence recording unit 104 by each of the first light sensing elements 102 (ie, the second position, the first The position, the third position, the fourth position, the fifth position) and notifies the illuminating signal controller 108 of the photographic sequence. At this time, the illuminating signal controller 108 can know the order in which the first illuminating diode units 110 are disposed outside the first grooving boxes 106; that is, the illuminating signal controller 108 The position of each of the first LED units 110 in the first LED units 110 is known.

Next, please refer to FIG. 2, which is a block diagram of a subsequent application embodiment of the photosensitive sequence recording system of the present invention, which removes the connection between the photosensitive sequence recording unit 104 and the illuminating signal controller 108. Next, the illuminating signal controller 108 receives an illuminating command S3 (eg, designed by a user). The illuminating signal controller 108 adjusts the order of illumination of the illuminating command S3 transmitted to the first illuminating diode units 110 by comparing the sensitizing sequence; for example, if the user desires the illuminating sequence to be: The first light emitting diode units 110 of the five positions, the fourth position, the third position, the second position, and the first position are sequentially illuminated, and the lighting command S3 is intuitively designed by the user. Therefore, the illuminating signals S1 having the specific address codes of 05, 04, 03, 02, and 01 are sequentially sent out.

The illumination signal controller 108 adjusts the illumination sequence of the illumination command S3 transmitted to the first LED units 110 by comparing the photosensitive sequence and the transmission sequence; that is, the illumination controller 108 The illuminating signals S1 having the specific address codes 05, 04, 03, 01, and 02 are sequentially transmitted to the first illuminating diode units 110; that is, the illuminating signal controller 108 transmits the specific address first. The illuminating signal S1 of the code 05 is sent to the first illuminating diode unit 110, and then the illuminating signal S1 having the specific address code of 04 is transmitted to the first illuminating diode unit 110, and then transmitted. The illuminating signal S1 having a specific address code of 03 to the first illuminating diode unit 110, and then transmitting the illuminating signal S1 having a specific address code of 01 to the first illuminating diode units 110 Finally, the illuminating signal S1 having a specific address code of 02 is transmitted to the first illuminating diode units 110. Therefore, the first light-emitting diode units 110 located at the fifth position, the fourth position, the third position, the second position, and the first position will be sequentially illuminated as desired by the user.

Since the material of the first groove box 106 is opaque dark acryl, and the groove design of the first groove box 106 (it is only shown in FIG. 1 ), the first illuminating The light emitted by each of the diode units 110 is only received by the first light sensing element 102 facing (closest to) the first light emitting diode unit 110 without being confronted by the first light sensing element 102. The remaining first light sensing elements 102 of a light emitting diode unit 110 are received by the first light sensing elements 102.

Since the first LED unit 110 does not necessarily face the first light sensing element 102 directly, the first mirror 50 needs to be erected to reflect the light of the first LED unit 110 to the first light sensing unit. Element 102. The first light emitting diode unit 110 is disposed between the first mirror 50 and the first light sensing elements 102 such that the first light emitting diode is partially opposite to the first light sensing element 102. The light emitted by the unit 110 is reflected by the first mirror 50 to the first light sensing element 102 facing away from (and closest to) the first LED unit 110. Furthermore, by appropriately setting the first mirror 50 and the material of the first recess box 106 to be opaque dark acryl and the groove design of the first recess box 106, the first illuminating The light emitted by the diode unit 110 does not reflect through the first mirror 50 to the first light sensing element 102 that does not face the first LED unit 110.

The first light sensing element 102 is a photo resistor, a CdS photo resistor, a photo diode or a photo transistor, so that the first The light sensing element 102 generates the light sensing signal S2 by a change in the intensity of the induced light. In one embodiment, the photosensitive sequential recording system 10 is disposed in a darkroom to avoid the effects of ambient light.

Please refer to FIG. 3, which is a block diagram of a second embodiment of the photosensitive sequential recording system of the present invention. The components shown in FIG. 3 are similar to those in FIGS. 1 and 2, and are not described herein for brevity. Furthermore, the photosensitive sequential recording system 10 further includes at least one steering column 114 (two shown in FIG. 2), a plurality of second light sensing elements 202, a plurality of second groove boxes 206, a second test platform 40, and a Second mirror 60. The light string 11 further includes a plurality of second light emitting diode units 210.

The steering column 114 is configured to abut the light string 11 to change the direction in which the light string 11 extends; the second light sensing elements 202 are electrically connected to the photosensitive sequential recording unit 104; the second recessed boxes 206 are mutually connected to each other. Arranging in a straight line and having a second fixed distance d2; the second fixed distance d2 is not equal to the first fixed distance d1; each of the second light sensing elements 202 is disposed in different second concaves The second light emitting diode unit 210 is electrically connected to the light emitting signal controller 108; the second light emitting diode units 210 are disposed in the second recessed boxes 206. The second light sensing element 202, the second recessed box 206, the second light emitting diode unit 210 and the second mirror 60 are at the same level and are disposed on the second test platform. 40 on.

Since the material of the second groove box 206 is opaque dark acryl, and the groove design of the second groove box 206 (it is only shown in FIG. 2), the second illuminating The light emitted by each of the diode units 210 is only received by the second light sensing element 202 facing (closest to) the second LED unit 210 without being facing the first The remaining second light sensing elements 202 of the two LED units 210 are received by the second light sensing elements 202.

Since the second LED unit 210 does not necessarily face the second light sensing element 202 directly, the second mirror 60 needs to be erected to reflect the light of the second LED unit 210 to the second light sensing unit. Element 202. The second light emitting diode unit 210 is disposed between the second mirror 60 and the second light sensing elements 202 such that the second light emitting diode is partially opposite to the second light sensing element 202. The light emitted by the unit 210 is reflected by the second mirror 60 to be opposite (and closest to) the second light sensing element 202 of the second LED unit 210. Furthermore, by appropriately setting the second mirror 60 and the second recess box 206 to be opaque dark acryl and the groove design of the second recess box 206, the second illuminating The light emitted by the diode unit 210 is not reflected by the second mirror 60 to the second light sensing element 202 that is not facing the second LED unit 210.

The second light sensing element 202 is a photoresistor, a cadmium sulfide photoresistor, a photodiode or a photoelectric crystal, such that the second light sensing element 202 generates the light by changing the intensity of the induced light. Induction signal S2.

The effect of the present invention is to simplify the manufacturing process of setting the order of the light emitting diode unit having the address code, and to allow the operator to perform the light sequence recording operation on the light string 11, and only need to straighten the light string 11 The efficiency of the manufacturing process of the light string 11 is improved.

However, the above is only a preferred embodiment of the present invention, and the scope of the present invention cannot be limited, that is, the equal changes and modifications made by the scope of the patent application of the present invention should still be covered by the patent of the present invention. The scope of the scope is intended to protect. There may be other various embodiments of the present invention, and those skilled in the art can make various corresponding changes and modifications according to the present invention without departing from the spirit of the present invention, but the corresponding changes and modifications are It is intended to fall within the scope of the appended claims. In summary, when Zhiben's creation has industrial applicability, novelty and progressiveness, and the structure of this creation has not been seen in similar products and public use, it fully complies with the requirements of new patent applications and applies for patent law.

10‧‧‧Photosensitive sequential recording system

11‧‧‧Light string

30‧‧‧First test platform

40‧‧‧Second test platform

50‧‧‧first mirror

60‧‧‧second mirror

102‧‧‧First light sensing element

104‧‧‧Photosensitive sequential recording unit

106‧‧‧First groove box

108‧‧‧Lighting signal controller

110‧‧‧First LED unit

112‧‧‧Connecting line

114‧‧‧Steering column

202‧‧‧Second light sensing element

206‧‧‧Second groove box

210‧‧‧Second light-emitting diode unit

D1‧‧‧first fixed distance

D2‧‧‧second fixed distance

S1‧‧‧ illuminating signal

S2‧‧‧Light sensing signal

S3‧‧‧Lighting instructions

1 is a block diagram of a first embodiment of a photosensitive sequential recording system of the present invention.

2 is a block diagram of a subsequent application embodiment of the photosensitive sequential recording system of the present invention.

Figure 3 is a block diagram showing a second embodiment of the photosensitive sequential recording system of the present invention.

10‧‧‧Photosensitive sequential recording system

11‧‧‧Light string

30‧‧‧First test platform

50‧‧‧first mirror

102‧‧‧First light sensing element

104‧‧‧Photosensitive sequential recording unit

106‧‧‧First groove box

108‧‧‧Lighting signal controller

110‧‧‧First LED unit

112‧‧‧Connecting line

D1‧‧‧first fixed distance

S1‧‧‧ illuminating signal

S2‧‧‧Light sensing signal

Claims (10)

A photosensitive sequential recording system comprising: a plurality of first light sensing elements; a photosensitive sequential recording unit electrically connected to the first light sensing elements; a plurality of first groove boxes, the plurality a groove box is arranged in a line with each other and has a first fixed distance. Each of the first light sensing elements is disposed in a groove of the different first groove boxes; The illuminating signal controller is electrically connected to the photographic sequential recording unit; and a light string, the light string includes a plurality of first illuminating diode units, and the first illuminating diode units are electrically connected to the illuminating unit The first light-emitting diode unit is disposed outside the first recessed boxes, wherein the light-emitting signal controller sequentially transmits a plurality of light-emitting signals to the first light-emitting diodes at different times. a body unit; if the address code of the first LED unit is the same as the specific address code of the illuminating signal, the first illuminating diode unit is driven to emit light by the illuminating signal, so that the first The first light sensing element of the light emitting diode unit senses light emitted by the first light emitting diode unit and transmits a light sensing signal to the photosensitive sequential recording unit; the photosensitive sequential recording unit records the photosensitive sequential recording unit Receiving a light-sensing sequence of the light-sensing signals respectively transmitted by each of the first light-sensing elements and notifying the light-emitting signal controller of the light-sensing sequence. The photosensitive sequence recording system of claim 1, wherein the light string further comprises: a connecting line, a part of the connecting line is a straight line, the connecting line is electrically connected to the illuminating signal controller and the a light emitting diode unit and for connecting the first light emitting diode units in series with each other. The photosensitive sequence recording system of claim 2, further comprising: at least one steering column, wherein the steering column is used to abut the light string to change the direction in which the light string extends. The photosensitive sequential recording system of claim 3, further comprising: a plurality of second light sensing elements electrically connected to the photosensitive sequential recording unit; and a plurality of second grooves The second recessed boxes are arranged in a line with each other and have a second fixed distance. Each of the second light sensing elements is disposed in a groove of the different second recessed boxes. The light string further includes a plurality of second light emitting diode units electrically connected to the light emitting signal controller, and the second light emitting diode units are disposed on the plurality of light emitting diode units The outside of the two groove boxes. The photosensitive sequential recording system of claim 4, further comprising: a first test platform, the first light sensing elements, the first recessed boxes, and the first light emitting diode units At the same level and set on the first test platform. The photosensitive sequence recording system of claim 5, further comprising: a second test platform, the second light sensing elements, the second recess boxes, and the second light emitting diode units At the same level and set on the second test platform. The photosensitive sequential recording system of claim 6, further comprising: a first mirror disposed on the first test platform, the first light emitting diode units Provided between the first mirror and the first light sensing elements such that light emitted by the first light emitting diode unit opposite to the first light sensing element is reflected back to the back through the first mirror The first light sensing element of the first light emitting diode unit. The photosensitive sequential recording system of claim 7, further comprising: a second mirror disposed on the second test platform, the second light emitting diode unit Provided between the second mirror and the second light sensing elements such that light emitted by the second light emitting diode unit opposite to the second light sensing element is reflected back to the back through the second mirror The second light sensing element of the second light emitting diode unit. The photosensitive sequential recording system of claim 8, wherein the material of the first groove box is opaque acryl; the material of the second groove box is opaque acryl. The photosensitive sequence recording system of claim 9, wherein the first light sensing element is a photoresistor, a photodiode or a photoelectric crystal; the second light sensing element is a photoresistor, A photodiode or a photonic crystal.