An intelligent management system for identity authentication services

Abstract

The present invention relates to a field of security authentication, and more specifically, to an intelligent management system for identity authentication services. It includes an access control load, a control module, an image acquisition module, an electric lock, a power management module, a video decoder, a display module, a fire alarm monitoring module, a terminal module, an emulator, and a computer. The control module is installed inside the access control load, the image acquisition module is embedded in the access control load, the electric lock is installed on the access control load, the power management module is connected to the control module, the video decoder is connected to the control module, the fire alarm monitoring module monitors fire information, the terminal module can receive information, and the emulator is connected to the computer. An intelligent management system for identity authentication services combines electric locks with modern biotechnology, adds fire alarm prediction on the basis of authentication, and forms various high-quality special authentication systems, which can realize comprehensive authentication protection such as anti-opening, anti-approach, and anti-fire, and is simple to install, safe and intelligent.

Description

Technical Field

[0001] The present invention relates to the field of security authentication, and more specifically, to an intelligent management system for identity authentication services. Background Art

[0002] With the development of society and the high popularity of information technology, various electronic devices are constantly entering our daily lives. Authentication services have gradually become digital and networked, safe and reliable.

[0003] Convenient identity authentication technology has become indispensable. How to quickly and accurately identify identities and ensure information security has become the focus of people's attention.

[0004] In access control, finance, boarding, attendance and other occasions, traditional identity authentication can no longer meet people's requirements for effective identity authentication and security inspection. With higher requirements, there is a full range of development in signal processing, biometric acquisition sensors, pattern recognition technology, etc. People in the real world can no longer do without identity authentication. Identity authentication is the first checkpoint for information system security. Its compromise will lead to the failure of the security protection of the entire information system. Therefore, establishing a more secure and effective identity authentication mechanism is the key to achieving information system security. Summary of the invention

[0005] The present invention provides an identity authentication service intelligent management system, which combines electric locks with modern biotechnology, adds fire alarm prediction on the basis of authentication, and forms various high-quality special authentication systems. It ensures the safety of personnel and property under the premise of ensuring the security of information systems. At the same time, users can set and modify system functions according to their own specific requirements, and can achieve comprehensive authentication protection such as anti-opening, anti-approach, and anti-fire. It is simple to install and safe and intelligent.

[0006] To achieve the above object, the present invention provides the following technical solutions:

[0007] An identity authentication service intelligent management system includes an access control load, a control module, an image acquisition module, an electric lock, a power management module, a video decoder, a display module, a fire alarm monitoring module, a terminal module, a simulator, and a computer.

[0008] The access control load is used as a device to be authenticated, and all electronic devices are installed on the access control load. The control module is the core of the entire system and is installed inside the access control load through a mounting slot. It is connected to the image acquisition module, the electric lock, the power management module, the video decoder, the fire detection module, the terminal module and the simulator through cables. The image acquisition module is embedded in the access control load through bolts and is flush with the front end of the access control load. The image acquisition module collects human iris information and performs corresponding storage and processing. The electric lock is installed on the access control load through a card slot and bolts to ensure that the opening and closing of the access control load are tightly closed. The power management module is connected to the access control load through a card slot and bolts to ensure that the opening and closing of the access control load are tightly closed. The management module is connected to the control module to ensure the power supply of the entire system. The video decoder is connected to the control module to encode the digital signal of the control module data into a PAL video signal and display the image information through the display module. The fire alarm monitoring module monitors the fire information through the temperature sensor and the smoke sensor. The terminal module can receive information through the authentication system APP. The emulator is connected to the computer using the USB2.0 interface and is connected to the control module using the JTAG interface, so as to realize data exchange between the computer and the image acquisition module, the electric lock, the power management module, the voice recognition module, and the fire alarm monitoring module.

[0009] The image acquisition module comprises a housing, a fixed panel, an iris image acquisition head, a near-infrared LED lighting, a video encoding chip, a DSP chip, and a data storage module.

[0010] The image acquisition module includes a shell and an electronic device fixed inside the shell, the fixed panel is embedded in the front end of the shell, the iris image acquisition head is embedded in the middle position of the fixed panel, the four near-infrared LED lighting is evenly distributed in a ring around the iris image acquisition head, the video encoding chip is connected to the DSP chip, and is responsible for converting the iris image collected by the iris image acquisition head from an analog video signal to a digital video signal and transmitting it to the DSP chip. The DSP chip is the core of the image acquisition module and is responsible for all image processing operations. The DSP chip is connected to the external control module, and transmits the iris recognition result to the control module and displays it through the display module. The data storage module is responsible for storing the iris recognition program, the iris feature coding database, the system boot program, and the intermediate variables in the iris recognition algorithm process.

[0011] Preferably, the control module circuit board has a built-in memory and a GSM module, and sends information to the terminal module via the GSM module.

[0012] Preferably, the near-infrared LED lighting not only provides lighting for the iris image acquisition head, but also realizes the infrared detection function.

[0013] Preferably, the DSP chip integrates a program memory for storing parameters and data. The digital image signal is first stored in the internal memory through the video port, and then the digital image signal is transmitted to the external synchronous dynamic data storage module by the internal direct memory.

[0014] Preferably, the display module includes a door station and an indoor station to realize a 3G video intercom function.

[0015] Preferably, the video decoder adopts a two-way communication decoder, which not only sends communication signals to the controller in addition to communication decoding, and can transmit the working status of the decoder to the controller for analysis in real time. In addition, the signals of front-end devices such as alarm detectors can be directly input into the decoder to transmit the on-site alarm detection signals by two-way communication, thereby reducing the use of cables.

[0016] Preferably, the terminal module includes a mobile phone terminal device, which can send out an alarm by storing a mobile phone number and setting a ring tone when the door is opened violently.

[0017] Preferably, the electric control lock is a password electric control lock.

[0018] Preferably, the simulator observes the program and data in the control module through a computer and controls the operation of the control module.

[0019] When no one approaches the access control load, that is, the system is in standby mode, only the electric lock is in working mode, and all other functional modules are in power-off mode. The electric lock can be directly triggered to open the door through the switch from inside the door. When someone approaches the door outside, the near-infrared LED lighting illuminates and outputs signals, the control module control circuit powers on other modules and initializes the system, the iris image acquisition head starts to collect iris images and compares them with the iris information in the feature database, and the display module starts to collect video images of visitors and displays them in real time on the indoor unit. If the visitor is a guest, just press the doorbell directly, and the owner inside the door can observe the situation outside the door through the indoor unit LCD display and decide whether to open the door; if the visitor is the owner, there are three options: the first is to press the doorbell, the second is to pass the iris authentication, and the third is to enter the password authentication. When the lock is opened by force or the owner is forced to open the lock, the system will send an alarm SMS to the terminal module through the GSM module embedded in the control module.

[0020] Compared with the prior art, the present invention has the following beneficial effects:

[0021] An identity authentication service intelligent management system that combines electric locks with modern biotechnology, adds fire alarm prediction on the basis of authentication, and forms various high-quality special authentication systems. It ensures the safety of personnel and property while ensuring the security of information systems. At the same time, users can set and modify system functions according to their specific requirements, and can achieve comprehensive authentication protection such as anti-opening, anti-approach, and anti-fire. It is easy to install and safe and intelligent.

[0022] Specific beneficial effects of some components of the present invention in the whole:

[0023] 1. In the present invention, the control module circuit board has a built-in memory and a GSM module, and sends information to the terminal module via the GSM module.

[0024] 2. In the present invention, the DSP chip is integrated with a program memory for storing parameters and data. The digital image signal is first stored in the internal memory through the video port, and then the digital image signal is transmitted to the external synchronous dynamic data storage module by the internal direct memory.

[0025] 3. In the present invention, the video decoder adopts a two-way communication decoder. In addition to communication decoding, it also sends a communication signal to the controller, and can transmit the working status of the decoder to the controller for analysis in real time. In addition, the signals of front-end devices such as alarm detectors can be directly input into the decoder to transmit the on-site alarm detection signals by two-way communication, thereby reducing the use of cables. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 This is a schematic diagram of the inner structure of the access control load of the present invention.

[0027] Figure 2 It is a schematic diagram of the outer structure of the access control load of the present invention.

[0028] Figure 3 It is a circuit connection schematic diagram of the present invention.

[0029] Figure 4 The present invention is a flow chart of program design.

[0030] In the figure: 1. Access control load, 2. Control module, 3. Image acquisition module, 301. Housing, 302. Fixed panel, 303. Iris image acquisition head, 304. Near-infrared LED lighting, 305. Video encoding chip, 306. DSP chip, 307. Data storage module, 4. Electric lock, 5. Power management module, 6. Video decoder, 7. Display module, 8. Fire alarm monitoring module, 9. Terminal module, 10. Simulator, 11. Computer. DETAILED DESCRIPTION

[0031] The present invention is further described below in conjunction with embodiments and drawings:

[0032] Example:

[0033] As attached Figure 1 , Attachment Figure 2 , Attachment Figure 3 and attached Figure 4 Shown

[0034] An identity authentication service intelligent management system includes an access control load 1, a control module 2, an image acquisition module 3, an electric lock 4, a power management module 5, a video decoder 6, a display module 7, a fire alarm monitoring module 8, a terminal module 9, a simulator 10, and a computer 11.

[0035] The access control load 1 is used as a device to be authenticated, and all electronic devices are installed on the access control load 1. The control module 2 is used as the core of the whole system. It is installed inside the access control load 1 through the installation slot, and is connected with the image acquisition module 3, the electric lock 4, the power management module 5, the video decoder 6, the fire detection module, the terminal module 9 and the simulator 10 through cables. The image acquisition module 3 is embedded in the access control load 1 through bolts and is flush with the front end of the access control load 1. The image acquisition module 3 collects the iris information of the person and performs corresponding storage and processing. The electric lock 4 is installed on the access control load 1 through the card slot and bolts to ensure that the opening and closing of the access control load 1 are tightly closed. The power management module 5 is connected to the image acquisition module 3, the electric lock 4, the power management module 5, the video decoder 6, the fire detection module, the terminal module 9 and the simulator 10 through cables. The image acquisition module 3 is embedded in the access control load 1 through bolts and is flush with the front end of the access control load 1. The image acquisition module 3 collects the iris information of the person and performs corresponding storage and processing. The electric lock 4 is installed on the access control load 1 through the card slot and bolts to ensure that the opening and closing of the access control load 1 are tightly closed. The management module 5 is connected to the control module 2 to ensure the power supply of the entire system. The video decoder 6 is connected to the control module 2 to encode the data digital signal of the control module 2 into a PAL video signal and display the image information through the display module 7. The fire monitoring module 8 monitors the fire information through the temperature sensor and the smoke sensor. The terminal module 9 can receive information through the authentication system APP. The emulator 10 is connected to the computer 11 using the USB2.0 interface and is connected to the control module 2 using the JTAG interface, so as to realize the data exchange between the computer 11 and the image acquisition module 3, the electric lock 4, the power management module 5, the voice recognition module, and the fire monitoring module 8.

[0036] The image acquisition module 3 includes a housing 301 , a fixed panel 302 , an iris image acquisition head 303 , a near-infrared LED lighting 304 , a video encoding chip 305 , a DSP chip 306 , and a data storage module 307 .

[0037] The image acquisition module 3 includes a shell 301 and an electronic device fixed inside the shell 301. The fixed panel 302 is embedded in the front end of the shell 301. The iris image acquisition head 303 is embedded in the middle of the fixed panel 302. The four near-infrared LED lightings 304 are evenly distributed around the iris image acquisition head 303 in a ring shape. The video encoding chip 305 is connected to the DSP chip 306 and is responsible for converting the iris image collected by the iris image acquisition head 303 from an analog video signal to a digital video signal and transmitting it to the DSP chip 306. The DSP chip 306 is the core of the image acquisition module 3 and is responsible for all image processing operations. The DSP chip 306 is connected to the external control module 2 to transmit the iris recognition result to the control module 2 and display it through the display module 7. The data storage module 307 is responsible for storing the iris recognition program, the iris feature coding database, the system boot program and the intermediate variables in the iris recognition algorithm process.

[0038] In the above embodiment, specifically, the control module 2 has a built-in memory and a GSM module on its circuit board, and sends information to the terminal module 9 via the GSM module.

[0039] In the above embodiment, specifically, the near-infrared LED lighting 304 not only provides lighting for the iris image acquisition head 303, but also realizes the infrared detection function.

[0040] In the above embodiment, specifically, the DSP chip 306 integrates a program memory for storing parameters and data. The digital image signal is first stored in the internal memory through the video port, and then the digital image signal is transmitted to the external synchronous dynamic data storage module 307 by the internal direct memory.

[0041] In the above embodiment, specifically, the display module 7 includes a door station and an indoor station to realize the 3G video intercom function.

[0042] In the above embodiment, specifically, the video decoder 6 adopts a two-way communication decoder, which not only sends communication signals to the controller in addition to communication decoding, and can transmit the working status of the decoder to the controller for analysis in real time. In addition, the signals of front-end devices such as alarm detectors can be directly input into the decoder to transmit the on-site alarm detection signals by two-way communication, thereby reducing the use of cables.

[0043] In the above embodiment, specifically, the terminal module 9 includes a mobile phone terminal device, and when the door is opened violently, an alarm can be issued by storing a mobile phone number and setting a ring tone.

[0044] In the above embodiment, specifically, the electric control lock 4 is controlled by a password.

[0045] In the above embodiment, specifically, the simulator 10 observes the program and data in the control module 2 through the computer 11 and controls the operation of the control module 2 .

[0046] Workflow of the present invention

[0047] When no one approaches the access control load 1, that is, the system is in standby mode, only the electric lock 4 is in working mode, and all other functional modules are in power-off mode. The electric lock 4 can be directly triggered to open the door through the switch from inside the door. When someone approaches outside the door, the near-infrared LED lighting 304 illuminates and outputs a signal, the control module 2 control circuit powers on other modules and initializes the system, the iris image acquisition head 303 starts to collect iris images and compares them with the iris information in the feature database, and the display module 7 starts to collect video images of visitors and displays them in real time on the indoor unit. If the visitor is a guest, just press the doorbell directly, and the owner inside the door can observe the situation outside the door through the indoor unit LCD display and decide whether to open the door; if the visitor is the owner, there are three options: the first is to press the doorbell, the second is to pass the iris authentication, and the third is to enter the password authentication. When the lock is opened by force or the owner is forced to open the lock, the system will send an alarm SMS to the terminal module 9 through the GSM module embedded in the control module 2.

[0048] The above embodiments and descriptions are only for explaining the feasibility of the present invention. Without departing from the spirit and scope of the present invention, the present invention may be subject to various changes and improvements, all of which fall within the scope of the protection required.

Claims

1. An intelligent management system for identity authentication services, characterized in that: The system comprises an access control load (1), a control module (2), an image acquisition module (3), an electric lock (4), a power management module (5), a video decoder (6), a display module (7), a fire alarm monitoring module (8), a terminal module (9), an emulator (10), and a computer (11). The access control load (1) serves as a device to be authenticated, and all electronic devices are installed on the access control load (1). The control module (2) serves as the core of the entire system and is installed inside the access control load (1) through a mounting slot and is connected to the image acquisition module (3), the electric lock (4), the power management module (5), the video decoder (6), the fire alarm detection module, the terminal module (9), and the emulator (10) through cables. The image acquisition module (3) is embedded in the access control load (1) through bolts and is flush with the front end of the access control load (1). The image acquisition module (3) collects human iris information and performs corresponding storage and processing. The electric lock (4) is installed on the access control load (1) through a card slot and bolts to ensure that the opening and closing of the access control load (1) is tightly closed. The power management module (5) is connected to the control module (2) to ensure the power supply of the entire system. The video decoder (6) is connected to the control module (2) to encode the data digital signal of the control module (2) into a PAL video signal and display the image information through the display module (7). The fire alarm monitoring module (8) monitors fire information through a temperature sensor and a smoke sensor. The terminal module (9) can receive information through an authentication system APP. The emulator (10) is connected to the computer (11) using a USB2.0 interface and is connected to the control module (2) using a JTAG interface, thereby realizing data exchange between the computer (11) and the image acquisition module (3), the electric lock (4), the power management module (5), the voice recognition module, and the fire alarm monitoring module (8); The image acquisition module (3) comprises a housing (301), a fixed panel (302), an iris image acquisition head (303), a near-infrared LED lighting (304), a video encoding chip (305), a DSP chip (306), and a data storage module (307). The image acquisition module (3) comprises a housing (301) and an electronic device fixed inside the housing (301); the fixed panel (302) is embedded in the front end of the housing (301); the iris image acquisition head (303) is embedded in the middle of the fixed panel (302); the four near-infrared LED lighting (304) are evenly distributed in a ring shape around the iris image acquisition head (303); The video encoding chip (305) is connected to the DSP chip (306) and is responsible for converting the iris image collected by the iris image acquisition head (303) from an analog video signal to a digital video signal and transmitting the digital video signal to the DSP chip (306). The DSP chip (306) is the core of the image acquisition module (3) and is responsible for all image processing operations. The DSP chip (306) is connected to the external control module (2) and transmits the iris recognition result to the control module (2) and displays it through the display module (7). The data storage module (307) is responsible for storing the iris recognition program, the iris feature coding database, the system boot program and the intermediate variables in the iris recognition algorithm process. The control module (2) has a built-in memory and a GSM module on the circuit board, and information is sent to the terminal module (9) via the GSM module; the DSP chip (306) has an integrated program memory for storing parameters and data, and the digital image signal is first stored in the internal memory via the video port, and then the digital image signal is transmitted to the external synchronous dynamic data storage module (307) via the internal direct memory; the video decoder (6) adopts a two-way communication decoder, which not only sends communication signals to the controller in addition to communication decoding, and transmits the working status of the decoder to the controller in real time for analysis, and also directly inputs the alarm detector front-end device signal into the decoder to transmit the on-site alarm detection signal via two-way communication.

2. According to claim 1, an identity authentication service intelligent management system is characterized in that: The near-infrared LED illumination (304) not only provides illumination for the iris image acquisition head (303), but also realizes an infrared detection function.

3. The identity authentication service intelligent management system according to claim 1, characterized in that: The display module (7) comprises a door station and an indoor station, realizing 3G visual intercom.

4. The identity authentication service intelligent management system according to claim 1, characterized in that: The terminal module (9) comprises a mobile phone terminal device, which, when the door is opened violently, sends out an alarm by storing the mobile phone number and setting a ring tone.

5. The identity authentication service intelligent management system according to claim 1, characterized in that: The simulator (10) observes the program and data in the control module (2) through the computer (11), and controls the operation of the control module (2).

6. The workflow of an identity authentication service intelligent management system according to claim 1 is characterized in that: When no one approaches the access control load (1), that is, the system is in standby mode, only the electric control lock (4) is in working mode, and all other functional modules are in power-off mode. The electric control lock (4) is triggered directly from the inside of the door by a switch to open the door. When someone approaches the outside of the door, the near-infrared LED lighting (304) illuminates and outputs a signal, the control module (2) controls the circuit to power on other modules and initialize the system, the iris image acquisition head (303) starts to acquire iris images and compares them with the iris information in the feature database, and the display module (7) starts to acquire video images of the visitor and displays them in real time on the indoor unit. If the visitor is a guest, the doorbell is directly pressed, and the owner inside the door observes the situation outside the door through the indoor unit LCD display and decides whether to open the door. If the visitor is the owner, there are three options: the first is to press the doorbell, the second is to pass iris authentication, and the third is to enter a password for authentication. When the door is opened by force or the owner is forced to open the door, the system will send an alarm text message to the terminal module (9) through the GSM module embedded in the control module (2).

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