CN213934850U - Multi-signal source interface interaction device - Google Patents
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- CN213934850U CN213934850U CN202120158164.2U CN202120158164U CN213934850U CN 213934850 U CN213934850 U CN 213934850U CN 202120158164 U CN202120158164 U CN 202120158164U CN 213934850 U CN213934850 U CN 213934850U
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Abstract
The utility model relates to a mutual device in many signal source interfaces, it includes: the system comprises an interactive service and instruction acquisition device, a safety instruction service box, a safety interface isolation box and a splicing controller; the interactive service and instruction acquisition equipment acquires real-time layout information of each signal source on a display screen from the splicing controller, determines a signal source to be controlled by a received control instruction and a safety instruction service box corresponding to the signal source according to the real-time layout information, and sends the control instruction to the safety instruction service box; the safety instruction service box is connected with the interactive service and instruction acquisition equipment and is used for receiving a control instruction, transmitting the control instruction to a signal source to be controlled in a one-way mode and enabling the signal source to respond according to the control instruction; the safety interface isolation box is connected with the safety command service box and used for enabling the signal source response result to be transmitted to the splicing controller in a single direction. The utility model discloses can realize transferring the safety of the signal source that is located each network.
Description
Technical Field
The utility model relates to an interactive device especially relates to interactive device in multi-signal source interface.
Background
Because of the need of security, network environment isolation is needed among a plurality of subnets, most of the existing interaction technologies cannot perform secure interaction on a plurality of computers through a unified interaction terminal, even if some interaction technologies can solve the interaction control problem, the computers and the interaction terminal are uniformly exposed in the same network environment, the security is sacrificed, and meanwhile, the interacted computers are only limited to passive interaction and cannot participate in interaction, and the secure interaction on the interaction result cannot be realized.
SUMMERY OF THE UTILITY MODEL
To above problem, the utility model provides a mutual device of many signal sources interface, it includes:
the system comprises an interactive service and instruction acquisition device, a safety instruction service box, a safety interface isolation box and a splicing controller;
the interactive service and instruction acquisition equipment is connected with the splicing controller and is used for acquiring real-time layout information of each signal source on a display screen from the splicing controller, determining a signal source to be controlled by a received control instruction and a safety instruction service box corresponding to the signal source according to the real-time layout information, and sending the control instruction to the safety instruction service box;
the safety instruction service box is connected with the interactive service and instruction acquisition equipment and is used for receiving control instructions from the interactive service and instruction acquisition equipment, transmitting the control instructions to a signal source to be controlled in a one-way mode and enabling the signal source to respond according to the control instructions;
the safety interface isolation box is connected with the safety command service box and used for enabling the signal source response result to be transmitted to the splicing controller in a single direction.
According to some embodiments of the present invention, the safety instruction service box comprises an instruction distribution server, and one or more groups of first transmission links, the first transmission links are composed of a first serial light conversion device, a first unidirectional optical fiber, a first serial light conversion device, and a first unidirectional serial port line, which are sequentially connected to the instruction distribution server, and the number of the groups of the first transmission links is the same as the number of the signal sources; the instruction distribution server is used for converting the control instruction in the form of the network signal into a control instruction in the form of a serial port signal, and distributing the control instruction in the form of the serial port signal to the corresponding first transmission link, so that the control instruction is transmitted to the signal source to be controlled through the corresponding first transmission link.
According to the utility model discloses a some embodiments, the safety interface shielded cell includes that a set of or multiunit second transmit link, and the second transmission link comprises first video line, look change optical equipment, the one-way optic fibre of second, light change optical equipment and video line, and every group second transmit link is used for making signal source response result single-direction transmission to concatenation controller.
According to some embodiments of the present invention, the safety instruction service box comprises an instruction distribution server and a plurality of third unidirectional optical fibers, wherein the instruction distribution server is configured to distribute the control instruction to the corresponding third unidirectional optical fibers, so that the control instruction is transmitted to the signal source to be controlled through the corresponding third unidirectional optical fibers in a unidirectional manner;
the safety interface isolation box comprises a plurality of fourth unidirectional optical fibers, and each fourth unidirectional optical fiber is used for receiving a corresponding signal source response result and enabling the response result to be transmitted to the splicing controller in a unidirectional mode through the corresponding fourth unidirectional optical fiber.
According to the utility model discloses a some embodiments, safe instruction service box includes instruction distribution server and many the one-way optic fibre of fifth, and instruction distribution server is used for converting the control command of network signal form into the control command of optical signal form to distribute the control command of optical signal form to the one-way optic fibre of fifth that corresponds, make control command through the one-way transmission of the one-way optic fibre of fifth that corresponds to the signal source of wanting control.
According to some embodiments of the present invention, the apparatus comprises a display device and a control instruction generating device, the display device being connected to the splicing controller for displaying the same content as the display screen; the control instruction generating equipment is used for generating the first control instruction and sending the first control instruction to the interactive service and instruction acquisition equipment;
the control instruction generating equipment is a transparent touch device which is superposed on the display equipment; or, the control instruction generating device comprises an infrared light curtain type touch screen based on the display device or the display screen.
According to some embodiments of the invention, the device further comprises one or more instruction output boxes; the instruction output box comprises a serial port and a USB port, and is used for converting the control instruction transmitted by the first transmission link into an HID standard equipment protocol and outputting the control instruction to a corresponding signal source through the USB port; the number of the instruction output boxes is the same as that of the signal sources.
According to some embodiments of the invention, the signal sources are located in different subnets of the network isolation, respectively; network isolation among each subnet; the signal source includes: a web cam, a web sensing device, a web smart display and/or control device, a web computing device, a mobile device, or a combination thereof.
According to some embodiments of the present invention, the signal source comprises a GIS map device, and the control instruction comprises a hot spot camera on the map and a content shot by the hot spot camera is displayed on the display screen; the hot spot camera is connected with the splicing controller.
According to some embodiments of the invention, the interactive service and instruction collection device is further configured to determine whether the control instruction corresponds to a global operation instruction; if the control command is not forwarded to the safety command service box, the interactive service and command acquisition equipment executes corresponding operation according to the global operation command; the global operation instruction comprises an instruction for controlling the splicing controller to change the layout of each signal source on the screen.
Through the utility model discloses an embodiment can realize the safe transfer to the signal source that is located each network.
Drawings
Fig. 1 illustrates a schematic block diagram of a multi-signal source interface interaction device in accordance with some embodiments of the present invention;
fig. 2 illustrates a schematic diagram of a safety commander service box according to some embodiments of the present invention;
fig. 3 illustrates a schematic diagram of a security interface isolation box according to some embodiments of the present invention.
Detailed Description
In order to make the objects, technical solutions and advantages of the embodiments of the present invention clearer, the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention, and it is obvious that the described embodiments are some, but not all, embodiments of the present invention.
In the present application, the use of the connection lines such as the optical fiber and the serial port is related to, in order to match these connection lines, a conversion module may need to be used in a supporting manner, for example, when a signal is converted from a network to the optical fiber, a network light conversion module is needed, but in the case that the computer network port itself is an optical port, an additional network light conversion module may be omitted, since whether such a module is necessary or not may be determined according to an actual application scenario and is well known to those skilled in the art, for the sake of simplicity, the description is not given one by one, but the omission of the necessary conversion module is not indicated. It should be noted that the embodiments and features of the embodiments in the present application may be combined with each other without conflict. The present application will be described in detail below with reference to the embodiments with reference to the attached drawings. It should be noted that the embodiments and features of the embodiments in the present application may be combined with each other without conflict. The present application will be described in detail below with reference to the embodiments with reference to the attached drawings.
Fig. 1 illustrates a schematic block diagram of a multi-signal source interface interaction device, in accordance with some embodiments of the present invention.
The connection line types corresponding to the figures are as follows: 1. a network cable; usb line; 3. a bi-directional serial port line; 4, a one-way serial port line; 5. a unidirectional optical fiber; 6. and (5) video lines.
The illustrated multi-signal-source interface interaction device comprises an interaction service and instruction acquisition device 9, a switch 10, a safety instruction service box 11, a safety interface isolation box 15 and a splicing controller 16. According to some embodiments of the present invention, the apparatus may further include one or more of a command output box 12, a tiled screen 17, a display device 8', a control command generating device 8, and a wire between the components. The display screen 17 may also be a non-tiled screen.
The control instruction generating device 8 may be, for example, an infrared frame touch input device, and may also be a capacitive touch device. The control instruction generating device may capture touch or other control actions by various methods such as electric induction, magnetic induction, thermal induction, and optical induction, or may generate other control instructions, such as a mouse and a keyboard. In addition, the control instructions may also be generated via a network approach. The control command generating device 8 can generate a gesture command, a keyboard, mouse control command, or a touch command. According to some embodiments of the present invention, the control instruction generating device can be spatially superimposed on the display device 8', as will be described below, the display device 8' can provide a picture of the control object, and when the control instruction generating device is a transparent touch device, by superimposing the touch device on the display device, a visual touch can be realized on the control instruction generating device by referring to the picture of the display device 8' below the transparent touch device. The display device 8' and the control instruction generating device 8 are connected in the overall apparatus as shown in fig. 1.
The control instruction generating device can also be an infrared light curtain type touch screen based on the display device 8 'or the spliced screen 17, wherein an infrared light curtain is arranged on the surface of the display device 8' or the spliced screen 17. The infrared light curtain may be formed on the screen surface by an infrared laser or a laser array above the screen, and when the user acts on the display device 8' in which the infrared light curtain is arranged or the tiled screen 17 by a finger or the like, the touch input of the user in the screen is captured by the infrared camera. For example, when a touch is performed on the display device 8' or the tiled screen 17, the light distribution of the infrared light curtain at the touch point X will change due to the touch behavior, e.g., part of the infrared light at the touch point is diffusely reflected off the screen by the touch finger and is captured by the infrared camera located in front of the screen; or part of the infrared light at the touch point is transmitted through the screen due to the action of the touch finger (for example, when the screen is a transflective DLP screen), and then is shot by the infrared camera positioned behind the screen. Touch control can be recognized by recognizing the position of the infrared contact in the shooting result.
The splicing controller 16 is configured to process and output the input video signals, for example, after the signals are spliced with each other, or after the input signals are partially cut, the signals are displayed on a splicing screen in a certain layout. The layout comprises the window distribution size and position of each signal source on the screen. The mosaic controller may also output the content output onto the mosaic screen to the display device 8' such that the content displayed thereon is the same as the content on the mosaic screen.
The interactive service and instruction acquisition equipment is used for receiving the control instruction from the control instruction generation equipment, reading real-time layout information on a screen from the splicing controller, judging a signal source to be operated by touch according to the layout information and the touch position indicated in the control instruction, determining an output port (or a transmission link) of a safety instruction service box corresponding to the signal source by reading the configuration file, and sending the determination results to the safety instruction service box. For example, the interactive service and instruction acquisition device reads a real-time layout from the splicing controller, determines distribution positions of each signal source on the screen, and can determine that a position to which touch is applied corresponds to the signal source 14 by analyzing touch information in the control instruction, and then the interactive service and instruction acquisition device sends the related control instruction to a safety instruction service box corresponding to the signal source 14, and the safety instruction service box further sends the control instruction to the signal source, so that the interactive service and instruction acquisition device responds to the control instruction. The signal source may convert the touch coordinates in the control command into coordinates of a signal source program space in response to the control command, for example, by converting the touch coordinates (touch coordinates on the control command generating device) into screen coordinates and converting the screen coordinates into coordinates of the signal source program space), and thereby correspondingly convert the control command into an operation in the signal source program space.
According to some embodiments of the present invention, the interactive service and instruction collection device may further determine whether the control instruction corresponds to a global operation instruction; and if the control command corresponds to the global operation command, the control command is not forwarded to a signal source or a safety command service box. The global operation instruction refers to an operation instruction which is not used for controlling each specific signal source, and the global operation instruction may include, for example, an instruction for controlling the splicing controller to change the layout of each signal source on the screen, where the change includes: displaying the content of other signal sources on the screen (or called switching window) to which the current touch is applied; or, the content on the screen acted by the current touch is displayed on the whole combined spliced screen in a full screen mode (or called full screen display); or changing the size of a display window on the screen acted by the current touch; or changing the size of a display window of the display content of each signal source on the screen; or changing the position of the display window of the display content of each signal source on the screen; or pushing the content on the screen used by the current touch to other screens or screens; or switching various pre-stored layout manners, for example, a plurality of layout manners may be pre-stored, in each layout manner, the same or different signal sources (1 or more) are displayed on the screen according to a certain manner or layout, and when the touch action of the user corresponds to switching various pre-stored layout manners, the layout of the whole screen is switched every touch operation. According to some embodiments, some touches may be set to correspond to global operation instructions and other touches may be set to correspond to non-global operation instructions according to operation habits. For touches corresponding to non-global operational instructions, the corresponding touch information is sent to the corresponding signal source as described above. The touches corresponding to the global operation instruction may include, for example, O, M, C, touch gestures such as < >, or one or more fingers or a pointer sliding on the screen in some other manner, or directional touch actions (e.g., left, right, front left, front right, etc. touches corresponding to pushing a picture displayed on the screen in front of the eye to the screen on the left, the screen on the right, the screen in front of the left, the screen in front of the right, etc., respectively). The touch corresponding to the non-global operation instruction may include, for example, a double-click, a single-click, or the like touch action on the screen. According to some embodiments, some touch actions may also be introduced as boundaries for global or non-global operation instructions. For example, after one W is applied, all touches will correspond to global operation commands, and after one M is applied, all touches will correspond to non-global operation commands. For example, the interactive service and instruction acquisition device may receive the touch input gesture W, control the stitching controller to enter a screen layout adjustment mode (or called a display layout adjustment mode), and then control the stitching controller according to the movement direction and the movement distance of the gesture, so that the stitching controller responds to the instruction corresponding to the gesture to change the predetermined signal source layout mode or the size and/or position of the signal source display window. According to some embodiments, some touch actions may also be introduced as global operation instructions, and the global operation instructions are corresponding to boundaries of the global operation instructions and the non-global operation instructions. For example, after one W is applied, all touches will correspond to global operation commands, and after one M is applied, all touches will correspond to non-global operation commands. For example, the interactive service and instruction acquisition device may receive the touch input gesture W, control the stitching controller to enter a screen layout adjustment mode (or called a display layout adjustment mode), and then control the stitching controller according to the movement direction and the movement distance of the gesture, so that the stitching controller responds to the instruction corresponding to the gesture to change the predetermined signal source layout mode or the size and/or position of the signal source display window.
According to the utility model discloses a further embodiment, mutual service and instruction collection equipment judge the signal source that control command will control and the output port of corresponding safety command service box through the information that control command self carried and is relevant with the signal source that will control, for example judge the output port of its signal source that will control and corresponding safety command service box according to some fields in the control command. In addition, the interactive service and instruction acquisition equipment can also pre-store the corresponding relation between the control instruction and the signal source to be controlled, judge the signal source to be controlled by the control instruction and the output port of the corresponding safety instruction service box according to the corresponding relation, and then send the control instruction and the output port information of the corresponding safety instruction service box to the safety instruction service box; when signal sources of different networks need to be called, the interactive service and instruction acquisition equipment can send the control instruction and the output port information of the corresponding safety instruction service box to the safety instruction service box of the subnet where the signal source to be controlled is located. According to other embodiments of the present invention, the signal source to be controlled by the control command and the output port of the corresponding safety command service box (as described below) may also be determined by the safety command service box itself.
The safety instruction service box 11 comprises an instruction distribution server 21, a serial port optical transceiver transmitting end 22, a serial port optical transceiver receiving end 24, optical fibers connecting the serial port optical transceiver receiving end and the transmitting end, an optical fiber isolator 23 in the optical fibers, and a one-way serial port line connecting the transmitting end. In the present application, the optical fiber and the fiber isolator are collectively referred to as a unidirectional optical fiber for simplicity of description. The transmitting end and the receiving end of the serial optical transceiver can also be called serial optical equipment or optical serial equipment. The instruction distribution server 21 is configured to convert the control instruction in the form of the network signal into a control instruction in the form of a serial port, and output the control instruction along a corresponding serial port optical transceiver transmitting end, a corresponding unidirectional optical fiber, and a corresponding serial port optical transceiver receiving end, such as along the transmission link in line 1 of fig. 2 or along the transmission link in line 2. Two sets of transmission links are shown in the figure, and the transmission links of the corresponding sets can be configured according to the number of actual signal sources. Under the condition that the network end connection line is an optical fiber, the safety instruction service box 11 may include an instruction distribution server 21 and a plurality of unidirectional optical fibers, where the instruction distribution server 21 is configured to distribute the control instruction to the corresponding unidirectional optical fibers, so that the control instruction is transmitted to the signal source to be controlled in a unidirectional manner through the corresponding unidirectional optical fibers, that is, at this time, it is not necessary to convert the network signal into an optical signal separately. According to the utility model discloses a some embodiments, under the condition that the network end line is the cable, the instruction distribution server is used for converting the control command of network signal form into the control command of optical signal form to distribute the control command of optical signal form to corresponding one-way optic fibre, make control command through corresponding one-way transmission of one-way optic fibre to the signal source that will control.
According to the utility model discloses a some embodiments, safe instruction service box 11 is after obtaining control command, and the signal source that this control command will be controlled is confirmed to the instruction distribution server to and can confirm which output port that will send control command to safe instruction service box through reading configuration file. The configuration file defines the correspondence of each signal source (ID) to an output port (or transmission link). According to some embodiments of the invention, the functionality of the instruction distribution server may also be integrated into the interaction service and instruction collection device 9.
The safety interface isolation box 15 includes a video optical transceiver transmitting end 31, a video optical transceiver receiving end 32, optical fibers connecting the video optical transceiver receiving end and the video optical transceiver transmitting end, an optical fiber isolator 33 in the optical fibers, and a video cable (as shown in fig. 3) connecting the video optical transceiver transmitting end, and is used for realizing unidirectional transmission in the x direction shown in the figure. The transmitting end and the receiving end of the video optical transceiver may also be called an electrical-to-optical device or an optical-to-electrical device, or a visual-to-optical device or an optical-to-visual device according to the difference of the converted objects. Two sets of transmission links are shown in the figure, and the transmission links of the corresponding sets can be configured according to the number of actual signal sources. Each transmission link comprises a video optical transceiver transmitting end, a video optical transceiver receiving end, optical fibers connecting the video optical transceiver receiving end and the video optical transceiver transmitting end, and an optical fiber isolator in the optical fibers.
The following further describes a security interface interaction process or method of the multi-signal source interface interaction device.
As shown in fig. 1, the control instruction generating device 8 transmits a control instruction to the interactive service and instruction collecting device 9 through a usb cable (or other transmission device).
The interactive service and instruction acquisition device 9 receives the control instruction and judges the control object of the control instruction: when the control instruction is directed to the mosaic controller, the interactive service and instruction acquisition device 9 may directly control the mosaic controller 16 according to the control instruction, for example, the mosaic controller controls the layout mode of the output image on the mosaic screen according to the control instruction. When the control command is directed to a signal source, the interactive service and command acquisition device 9 sends the control command to the safety command service box 11 through a network (such as a switch 10 in the figure).
The instruction distribution server 21 in the safety instruction service box 11 receives the control instruction, converts the control instruction in the form of network signal into a control instruction in the form of serial port signal, and transmits the control instruction to the serial port optical transceiver transmitting terminal 22, the unidirectional optical fiber, and the serial port optical transceiver receiving terminal 24, and directly transmits the control instruction to the signal source (13, 14) to be controlled through the unidirectional serial port line 4 (without involving the instruction output box 12 shown by the dotted line in the figure), so that the signal source responds and outputs the response result through the video line.
The safety interface isolation box 15 receives the video response result, and outputs the video response result to the splicing controller 16 in a one-way manner through the video optical transceiver transmitting end, the one-way optical fiber, the video optical transceiver receiving end and the video cable.
The stitching controller 16 receives the video response result and outputs it to the stitching screen 17 and/or the display device 8'.
According to the utility model discloses a some embodiments, the device can also further include instruction output box 12, and this instruction output box has a serial ports and USB mouth for control command (like control mouse, keyboard, multiple spot touch-control instruction) to the serial ports form of input is analyzed, finally forms HID standard equipment agreement, thereby realizes multiple spot touch-control, mouse and the keyboard control to the signal source. According to some embodiments of the present invention, the functions of this part may also be integrated into the safety commander service box 11.
According to some embodiments of the invention, the signal source may comprise: a web cam, a web sensing device, a web smart display and/or control device, a web computing device, a mobile device, or a combination thereof.
According to the utility model discloses a some embodiments, the signal source can be located the subnet of difference respectively, and network isolation between every subnet, at this moment, according to the utility model discloses a some embodiments, interactive service and instruction acquisition equipment can be with control command and corresponding safe instruction service box's output port information transmission to the safe instruction service box of signal source place subnet of wanting control.
According to some embodiments of the present invention, the response of the signal source to be controlled to the control command may include, for example: opening a file, closing a file, receiving text input and the like. And then, the opened folder interface in the signal source to be controlled is directly output to the safety interface isolation box through a video line connected with the folder interface.
According to some embodiments of the present invention, encryption measures can be introduced in each of the above links to further ensure the security of the interaction process.
According to the utility model discloses a some embodiments can replace equipment such as the above-mentioned one-way optic fibre with other one-way transmission equipment according to actual need.
According to some embodiments of the present invention, the signal source comprises a GIS map device, and the control instruction comprises a hot spot camera on the map and a content shot by the hot spot camera is displayed on the display screen; the hot spot camera is connected with the splicing controller.
Claims (10)
1. A multi-signal-source interface interaction device, comprising:
the system comprises an interactive service and instruction acquisition device, a safety instruction service box, a safety interface isolation box and a splicing controller;
the interactive service and instruction acquisition equipment is connected with the splicing controller and is used for acquiring real-time layout information of each signal source on a display screen from the splicing controller, determining the signal source to be controlled by the received control instruction and a safety instruction service box corresponding to the signal source according to the real-time layout information, and sending the control instruction to the safety instruction service box;
the safety instruction service box is connected with the interactive service and instruction acquisition equipment and is used for receiving control instructions from the interactive service and instruction acquisition equipment, transmitting the control instructions to a signal source to be controlled in a one-way mode and enabling the signal source to respond according to the control instructions;
the safety interface isolation box is connected with the safety command service box and used for enabling the signal source response result to be transmitted to the splicing controller in a single direction.
2. The multi-signal-source interface interaction device according to claim 1, wherein the safety command service box comprises a command distribution server, and one or more groups of first transmission links, each of the first transmission links is composed of a first serial optical device, a first unidirectional optical fiber, a first optical serial device and a first unidirectional serial port line, which are sequentially connected to the command distribution server, and the number of the groups of the first transmission links is the same as the number of the signal sources; the instruction distribution server is used for converting the control instruction in the form of the network signal into a control instruction in the form of a serial port signal, and distributing the control instruction in the form of the serial port signal to the corresponding first transmission link, so that the control instruction is transmitted to the signal source to be controlled through the corresponding first transmission link.
3. The multi-signal-source interface interaction device of claim 1, wherein the safety-interface isolation box comprises one or more groups of second transmission links, each group of second transmission links is composed of a first video line, a video-to-optical device, a second unidirectional optical fiber, an optical video-to-optical device, and a video line, and each group of second transmission links is configured to unidirectionally transmit the signal-source response result to the splice controller.
4. The multi-signal-source interface interaction device according to claim 1, wherein the safety command service box comprises a command distribution server and a plurality of third unidirectional optical fibers, and the command distribution server is configured to distribute the control command to the corresponding third unidirectional optical fibers, so that the control command is transmitted to the signal source to be controlled in a unidirectional manner through the corresponding third unidirectional optical fibers;
the safety interface isolation box comprises a plurality of fourth unidirectional optical fibers, and each fourth unidirectional optical fiber is used for receiving a corresponding signal source response result and enabling the response result to be transmitted to the splicing controller in a unidirectional mode through the corresponding fourth unidirectional optical fiber.
5. The multi-signal-source interface interaction device according to claim 1, wherein the safety command service box comprises a command distribution server and a plurality of fifth unidirectional optical fibers, and the command distribution server is configured to convert the control command in the form of the network signal into the control command in the form of the optical signal and distribute the control command in the form of the optical signal to the corresponding fifth unidirectional optical fibers, so that the control command is transmitted to the signal source to be controlled in a unidirectional manner through the corresponding fifth unidirectional optical fibers.
6. The multi-signal-source interface interaction device according to claim 1, further comprising a display device and a control instruction generation device, wherein the display device is connected to the splicing controller and is configured to display the same content as the display screen; the control instruction generating equipment is used for generating the control instruction and sending the control instruction to the interactive service and instruction acquisition equipment;
the control instruction generating equipment is a transparent touch device which is superposed on the display equipment; or, the control instruction generating device comprises an infrared light curtain type touch screen based on the display device or the display screen.
7. The multi-signal source interface interaction device of claim 3, further comprising one or more command output boxes; the instruction output box comprises a serial port and a USB port, and is used for converting the control instruction transmitted by the first transmission link into an HID standard equipment protocol and outputting the control instruction to a corresponding signal source through the USB port; the number of the instruction output boxes is the same as that of the signal sources.
8. The multi-signal source interface interaction device of claim 1, wherein the signal sources are respectively located in different subnets isolated from a network; network isolation among each subnet; the signal source includes: a web cam, a web sensing device, a web smart display and/or control device, a web computing device, a mobile device, or a combination thereof.
9. The multi-signal-source interface interaction device of claim 1, wherein the signal source comprises a GIS map device, and the control command comprises a command to retrieve a hotspot camera on the map and to display content captured by the hotspot camera on a display screen; the hot spot camera is connected with the splicing controller.
10. The multi-signal-source interface interaction device of claim 2, wherein the interaction service and instruction collection device is further configured to determine whether the control instruction corresponds to a global operation instruction; if the control command is not forwarded to the safety command service box, the interactive service and command acquisition equipment executes corresponding operation according to the global operation command; the global operation instruction comprises an instruction for controlling the splicing controller to change the layout of each signal source on the screen.
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| CN114625417A (en) * | 2022-01-07 | 2022-06-14 | 北京仁光科技有限公司 | Multi-signal-source interface safety interaction device |
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|---|---|---|---|---|
| CN114625417A (en) * | 2022-01-07 | 2022-06-14 | 北京仁光科技有限公司 | Multi-signal-source interface safety interaction device |
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| CN213934850U9 (en) | 2021-09-17 |
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Correction item: Abstract figure|Claims|Description|Drawings Correct: Attached drawings of the abstract modified by the examiner ex officio|Claims submitted on August 20, 2021|Instructions submitted on August 20, 2021|Attached drawings of the specification submitted on August 20, 2021 False: Attached drawings of the abstract submitted on January 20, 2021|Claims submitted on July 8, 2021|Instructions submitted on January 20, 2021|Attached drawings of the specification submitted on January 20, 2021 Number: 33-01 Page: full text Volume: 37 Correction item: Abstract figure Correct: Attached drawings of the abstract modified by the examiner ex officio False: Attached drawings of the abstract submitted on January 20, 2021 Number: 33-01 Volume: 37 |
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