Code scanning payment real-time monitoring system

Abstract

The invention relates to the technical field of code scanning payment, and discloses a code scanning payment real-time monitoring system, which comprises an identification induction module, a data analysis module, a control adjustment module and a code scanning payment module, and is characterized in that the identification induction module comprises a physical sign data identification unit, a light data identification unit and a voice instruction data identification unit; the data analysis module comprises a physical sign analysis unit and a light analysis unit, the control adjustment module comprises a height adjustment unit, a light adjustment unit and a voice output recognition unit, and the control adjustment module sends a signal to the code scanning payment module after corresponding adjustment is completed. The payment state of a payer can be monitored in real time by collecting current payment feature data, the payment safety is improved to a certain extent, automatic light and height adjustment is performed according to actual conditions, the problems that too high people need to bend down during face scanning, too short people or people sitting in wheelchairs need to stand up and the like are solved, and the user experience is improved. And the convenience in the system operation process is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of code scanning payment, and in particular to a real-time monitoring system for code scanning payment. Background Art

[0002] The real-time monitoring system for QR code payment is an intelligent solution that integrates multiple high-tech technologies. It is mainly aimed at ensuring the security, real-time monitoring and management of mobile payments. The system uses data encryption, cloud computing and artificial intelligence technology to provide consumers and merchants with a convenient and secure payment experience. With the rapid development of the mobile payment field, the importance of the real-time monitoring system for QR code payment has become increasingly prominent. It not only improves payment efficiency, but more importantly, greatly enhances the security and reliability of transactions. With multi-level security design, real-time data processing and comprehensive user support, this system ensures payment convenience while protecting the rights and interests of consumers and merchants. It is an important guarantee in the field of modern digital payments.

[0003] The real-time monitoring system for QR code payment is an indispensable part of the modern electronic payment environment. Especially with the increasing popularity of QR code payment, it provides merchants, payment platforms and financial institutions with powerful real-time data monitoring and management capabilities to ensure the security and efficiency of the payment process. It is a comprehensive system that integrates data collection, real-time processing, monitoring and analysis functions, and tracks and manages the QR code payment process in real time, so as to promptly discover and handle problems that may arise in the payment process. Looking to the future, with the development of technology, the real-time monitoring system for QR code payment will further enhance its intelligence level. At the same time, the system will continue to enhance its security protection capabilities to cope with the evolving payment security threats. In general, the real-time monitoring system for QR code payment plays an important role in improving payment efficiency and security, and is an indispensable core component in the modern payment environment.

[0004] The existing real-time monitoring system for scanning code payment uses a relatively rigid scanning code terminal during the payment process. When recognizing and photographing the face of a tall person, the user needs to bend down. For shorter people or people with limited mobility in wheelchairs, facial recognition is difficult. The system is difficult to operate and cannot be adjusted to suit all groups of people. In addition, the light cannot be adjusted automatically, which can easily lead to scanning failures. Summary of the invention

[0005] 1. Technical issues to be resolved

[0006] In view of the deficiencies in the prior art, the present invention provides a real-time monitoring system for scan code payment, which can monitor the payer's payment status in real time by collecting the current characteristic data TZdq of the payment, thereby improving the payment security to a certain extent, and automatically adjusting the lighting and height according to the actual situation to avoid the problem that people who are too tall need to bend down for face scanning, and people who are too short or in wheelchairs need to stand up, thereby improving the convenience of the system during operation, and solving the problems that there are certain difficulties in the current operation, it is difficult to self-adjust to suit all people, and the light cannot be self-adjusted, which easily causes scanning failure during scanning.

[0007] (II) Technical solution

[0008] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a real-time monitoring system for scanning code payment, comprising an identification sensing module, a data analysis module, a control and adjustment module and a scanning code payment module;

[0009] The identification and sensing module includes a vital sign data recognition unit, a light data recognition unit and a voice command data recognition unit. The vital sign data recognition unit is connected to a camera through a network to collect multiple payer characteristic data TZsj and current payment characteristic data TZdq, and the multiple payer characteristic data TZsj are formed into a vital sign data set. The light data recognition unit is connected to a photosensitive sensor through a network to collect multiple light data GXsj and current light data GXdq in a successful payment state, and the multiple light data GXsj in a successful payment state are formed into a light data set. The identification and sensing module sends the collected data and the data set to the data analysis module.

[0010] The voice instruction data recognition unit is connected to a microphone through a network to collect multiple voice instruction data YYsj and current voice data YYdq, and the multiple voice instruction data YYsj form a voice data set, and the recognition sensing module sends the collected voice data set and the current voice data YYdq to the control and adjustment module;

[0011] The data analysis module includes a physical sign analysis unit and a light analysis unit. The physical sign analysis unit calculates the average physical sign TZpj of the payer through the collected physical sign data set, and sets the average physical sign TZpj as the original payment device height. The data analysis module calculates the characteristic difference TZcz according to the average physical sign TZpj and the current characteristic data TZdq. The light analysis unit calculates the average light GXpj under the payment state through the light data set, and then calculates the light difference GXcz through the average light GXpj and the current light data GXdq. The data analysis module sends the characteristic difference TZcz to the control and regulation module. The data analysis module sends the light difference GXcz to the control and regulation module.

[0012] The control and adjustment module includes a height adjustment unit, a light adjustment unit and a voice output recognition unit. The height adjustment unit is connected to the height adjustment device through the network to adjust the height of the device according to the characteristic difference TZcz. The light adjustment unit is connected to the light adjustment device through the network to adjust the light brightness of the device according to the light difference GXcz. The voice output recognition unit is connected to the voice broadcast unit for voice broadcast. After the corresponding adjustment is completed, the control and adjustment module sends a signal to the scan code payment module for scan code payment.

[0013] Preferably, the expression of the physical sign data set is {TZsj1, TZsj2, TZsj3, ..., TZsj n}, in the expression, TZsj1 represents the first sign data in the sign data set, TZsj n represents the last sign data in the sign data set, and n represents that there are n sign data in the sign data set.

[0014] Preferably, the expression of the light data set is {GXsj1, GXsj2, GXsj3, ..., GXsj n}, in the expression, GXsj1 represents the first ray data in the ray data set, GXsj n Represents the last ray data in the ray data set, and n represents that there are n ray data in the ray data set.

[0015] Preferably, the expression of the speech data set is {YYsj1, YYsj2, YYsj3, ..., YYsj n}, in the expression, YYsj1 represents the first voice data in the voice data set, YYsj n represents the last voice data in the voice data set, n represents the number of voice data in the voice data set, when YYdq∈{YYsj1, YYsj2, YYsj3, …, YYsj n}, indicating that the current voice data YYdq is consistent with the voice data set, and the voice output recognition unit extracts the corresponding voice data in the voice data set according to the current voice data and broadcasts it.

[0016] Preferably, the calculation method of the payer's average physical sign TZpj is as follows:

[0017]

[0018] In the above formula, It means that all the characteristic data values ​​TZsj from i=1 to i=n are added together, and then divided by the total number n, and the average value of the vital sign data set is obtained, which is the average vital sign TZpj.

[0019] Preferably, the characteristic difference TZcz is calculated as follows:

[0020] TZcz=TZdq-TZpj

[0021] Preferably, when the characteristic difference TZcz is a positive number, it means that the height of the current payee is higher than the height of the original payment device, and a signal is sent to the control and adjustment module to adjust the height upward. When the characteristic difference TZcz is a negative number, it means that the height of the current payee is lower than the height of the original payment device, and a signal is sent to the control and adjustment module to adjust the height downward.

[0022] Preferably, the average light GXpj is calculated as follows:

[0023]

[0024] In the above formula, It means that all the light data GXsj from i=1 to i=n are added together, and then divided by the total number n, and the average value of the light data set is obtained as the average light GXpj.

[0025] Preferably, the light difference GXcz is calculated as follows:

[0026] GXcz=GXdq-GXpj

[0027] Preferably, when the light difference GXcz is a positive number, it means that the current light data GXdq is higher than the average light GXpj, and a signal is sent to the control and adjustment module to adjust the light to be darker. When the light difference GXcz is a negative number, it means that the current light data GXdq is lower than the average light GXpj, and a signal is sent to the control and adjustment module to adjust the light to be brighter.

[0028] Compared with the prior art, the present invention provides a real-time monitoring system for scanning code payment, which has the following beneficial effects:

[0029] 1. The present invention collects multiple payer characteristic data TZsj to form a vital sign data set, and collects multiple light data GXsj in a successful payment state to form a light data set, so that when setting the initial height and initial light, a balanced setting is performed in combination with the actual situation, so that the initial data is more popular, and the probability of later debugging and the energy loss caused by debugging are reduced to a certain extent. At the same time, the current payment characteristic data TZdq is collected to monitor the payer's payment status in real time, which improves the payment security to a certain extent.

[0030] 2. The present invention adjusts the height and light brightness accordingly according to the characteristic difference TZcz and the light difference GXcz through the control and adjustment module, thereby avoiding the problem that people who are too tall need to bend down when performing face scanning, and people who are too short or in wheelchairs need to stand up. At the same time, it avoids the problem of reflection when collecting the payer's facial information due to excessive light or too dark light. The automatic height and light adjustment avoids the tediousness caused by manual adjustment. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] Figure 1 It is a schematic diagram of the structural system of the present invention; DETAILED DESCRIPTION

[0032] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0033] See also Figure 1 , a real-time monitoring system for scanning code payment, including an identification sensing module, a data analysis module, a control and adjustment module and a scanning code payment module;

[0034] The recognition sensing module includes a physical sign data recognition unit, a light data recognition unit and a voice command data recognition unit. The physical sign data recognition unit is connected to a camera through a network to collect multiple payer characteristic data TZsj and current payment characteristic data TZdq, and the multiple payer characteristic data TZsj are formed into a physical sign data set. The light data recognition unit is connected to a photosensitive sensor through a network to collect multiple light data GXsj and current light data GXdq in a successful payment state, and the multiple light data GXsj in a successful payment state are formed into a light data set. The recognition sensing module sends the collected data and the data set to the data analysis module.

[0035] The expression of the physical sign data set is: {TZsj1, TZsj2, TZsj3, …, TZsj n};

[0036] The expression of the ray data set is: {GXsj1, GXsj2, GXsj3, …, GXsj n};

[0037] In the expression, TZsj1 represents the first sign data in the sign data set, TZsj n represents the last sign data in the sign data set, and n represents that there are n sign data in the sign data set;

[0038] In the expression, GXsj1 represents the first ray data in the ray data set, GXsj n Represents the last ray data in the ray data set, and n represents that there are n ray data in the ray data set;

[0039] By collecting multiple payer characteristic data TZsj to form a physical sign data set, and collecting multiple light data GXsj under successful payment status to form a light data set, the initial height and initial light settings are balanced according to the actual situation, making the initial data more popular, and reducing the probability of later debugging and the energy loss caused by debugging to a certain extent. At the same time, the current payment characteristic data TZdq can be collected to monitor the payer's payment status in real time, which improves the payment security to a certain extent;

[0040] The voice command data recognition unit is connected to a microphone through a network to collect multiple voice command data YYsj and current voice data YYdq, and the multiple voice command data YYsj form a voice data set, and the recognition sensing module sends the collected voice data set and the current voice data YYdq to the control and adjustment module;

[0041] The expression of the speech data set is: {YYsj1, YYsj2, YYsj3, …, YYsj n};

[0042] In the expression, YYsj1 represents the first voice data in the voice data set, YYsj n represents the last voice data in the voice data set, n represents the number of voice data in the voice data set, when YYdq∈{YYsj1, YYsj2, YYsj3, …, YYsj n}, indicating that the current voice data YYdq is consistent with the voice data set, and the voice output recognition unit extracts the corresponding voice data in the voice data set according to the current voice data for broadcast;

[0043] By matching the current voice data YYdq with the voice data set, people with limited mobility can check the payment amount by voice when making payments, thus achieving payment transparency and increasing the convenience of operation;

[0044] The data analysis module includes a physical sign analysis unit and a light analysis unit. The physical sign analysis unit calculates the average physical sign TZpj of the payer through the collected physical sign data set, and sets the average physical sign TZpj as the original payment device height. The data analysis module calculates the characteristic difference TZcz according to the average physical sign TZpj and the current characteristic data TZdq. The light analysis unit calculates the average light GXpj under the payment state through the light data set, and then calculates the light difference GXcz through the average light GXpj and the current light data GXdq. The data analysis module sends the characteristic difference TZcz to the control and regulation module. The data analysis module sends the light difference GXcz to the control and regulation module.

[0045] The payer average sign TZpj is calculated as follows:

[0046]

[0047] In the above formula, It means that all the characteristic data values ​​TZsj from i=1 to i=n are added together, and then divided by the total number n, and the average value of the physical sign data set is obtained as the average physical sign TZpj;

[0048] The characteristic difference TZcz is calculated as follows:

[0049] TZcz=TZdq-TZpj

[0050] When the characteristic difference value TZcz is a positive number, it means that the current payee's height is higher than the original payment device height, and a signal is sent to the control and adjustment module to adjust the height upward; when the characteristic difference value TZcz is a negative number, it means that the current payee's height is lower than the original payment device height, and a signal is sent to the control and adjustment module to adjust the height downward;

[0051] The average light GXpj is calculated as follows:

[0052]

[0053] In the above formula, It means that all the light data GXsj from i=1 to i=n are added together, and then divided by the total number n, and the average value of the light data set is the average light GXpj;

[0054] The light difference GXcz is calculated as follows:

[0055] GXcz=GXdq-GXpj

[0056] When the light difference GXcz is a positive number, it means that the current light data GXdq is higher than the average light GXpj, and a signal is sent to the control and adjustment module to adjust the light to dark. When the light difference GXcZ is a negative number, it means that the current light data GXdq is lower than the average light GXpj, and a signal is sent to the control and adjustment module to adjust the light to bright.

[0057] The control and adjustment module includes a height adjustment unit, a light adjustment unit and a voice output recognition unit. The height adjustment unit is connected to the height adjustment device through the network to adjust the height of the device according to the characteristic difference TZcz. The light adjustment unit is connected to the light adjustment device through the network to adjust the light brightness of the device according to the light difference GXcz. The voice output recognition unit is connected to the voice broadcast unit to broadcast voice. After completing the corresponding adjustment, the control and adjustment module sends a signal to the code scanning payment module for code scanning payment;

[0058] The control and adjustment module adjusts the height and light brightness accordingly according to the characteristic difference TZcz and the light difference GXcz, avoiding problems such as tall people having to bend down for face scanning, and people who are too short or in wheelchairs having to stand up. It also avoids problems such as reflections caused by excessive light or dark light when collecting the payer's facial information. The automatic height and light adjustment avoids the tediousness brought by manual adjustment.

[0059] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A real-time monitoring system for scanning code payment, characterized by: It includes recognition and sensing module, data analysis module, control and regulation module and code scanning and payment module; The identification and sensing module includes a vital sign data recognition unit, a light data recognition unit and a voice command data recognition unit. The vital sign data recognition unit is connected to a camera through a network to collect multiple payer characteristic data TZsj and current payment characteristic data TZdq, and the multiple payer characteristic data TZsj are formed into a vital sign data set. The light data recognition unit is connected to a photosensitive sensor through a network to collect multiple light data GXsj and current light data GXdq in a successful payment state, and the multiple light data GXsj in a successful payment state are formed into a light data set. The identification and sensing module sends the collected data and the data set to the data analysis module. The voice instruction data recognition unit is connected to a microphone through a network to collect multiple voice instruction data YYsj and current voice data YYdq, and the multiple voice instruction data YYsj form a voice data set, and the recognition sensing module sends the collected voice data set and the current voice data YYdq to the control and adjustment module; The data analysis module includes a physical sign analysis unit and a light analysis unit. The physical sign analysis unit calculates the average physical sign TZpj of the payer through the collected physical sign data set, and sets the average physical sign TZpj as the original payment device height. The data analysis module calculates the characteristic difference TZcz according to the average physical sign TZpj and the current characteristic data TZdq. The light analysis unit calculates the average light GXpj under the payment state through the light data set, and then calculates the light difference GXcz through the average light GXpj and the current light data GXdq. The data analysis module sends the characteristic difference TZcz to the control and regulation module. The data analysis module sends the light difference GXcz to the control and regulation module. The control and adjustment module includes a height adjustment unit, a light adjustment unit and a voice output recognition unit. The height adjustment unit is connected to the height adjustment device through the network to adjust the height of the device according to the characteristic difference TZcz. The light adjustment unit is connected to the light adjustment device through the network to adjust the light brightness of the device according to the light difference GXcz. The voice output recognition unit is connected to the voice broadcast unit for voice broadcast. After the corresponding adjustment is completed, the control and adjustment module sends a signal to the scan code payment module for scan code payment.

2. A real-time monitoring system for scanning code payment according to claim 1, characterized in that: The expression of the physical sign data set is: {TZsj1, TZsj2, TZsj3, ..., TZsj n }, in the expression, TZsj1 represents the first sign data in the sign data set, TZsj n represents the last sign data in the sign data set, and n represents that there are n sign data in the sign data set.

3. A real-time monitoring system for scanning code payment according to claim 1, characterized in that: The expression of the light data set is: {GXsj1, GXsj2, GXsj3, ..., GXsj n }, in the expression, GXsj1 represents the first ray data in the ray data set, GXsj n Represents the last ray data in the ray data set, and n represents that there are n ray data in the ray data set.

4. A real-time monitoring system for scanning code payment according to claim 1, characterized in that: The expression of the speech data set is: {YYsj1, YYsj2, YYsj3, ..., YYsj n }, in the expression, YYsj1 represents the first voice data in the voice data set, YYsj n represents the last voice data in the voice data set, n represents the number of voice data in the voice data set, when YYdq∈{YYsj1, YYsj2, YYsj3, …, YYsj n }, indicating that the current voice data YYdq is consistent with the voice data set, and the voice output recognition unit extracts the corresponding voice data in the voice data set according to the current voice data and broadcasts it.

5. A real-time monitoring system for scanning code payment according to claim 1, characterized in that: The payer average sign TZpj is calculated as follows: In the above formula, It means that all the characteristic data values ​​TZsj from i=1 to i=n are added together, and then divided by the total number n, and the average value of the vital sign data set is obtained, which is the average vital sign TZpj.

6. A real-time monitoring system for scanning code payment according to claim 1, characterized in that: The characteristic difference value TZcz is calculated as follows: TZcz=TZdq-TZpj 7. A real-time monitoring system for scanning code payment according to claim 1, characterized in that: When the characteristic difference TZcz is a positive number, it means that the current payee's height is higher than the original payment device height, and a signal is sent to the control and adjustment module to adjust the height upward. When the characteristic difference TZcz is a negative number, it means that the current payee's height is lower than the original payment device height, and a signal is sent to the control and adjustment module to adjust the height downward.

8. A real-time monitoring system for scanning code payment according to claim 1, characterized in that: The average light GXpj is calculated as follows: In the above formula, It means that all the light data GXsj from i=1 to i=n are added together, and then divided by the total number n, and the average value of the light data set is obtained as the average light GXpj.

9. A real-time monitoring system for scanning code payment according to claim 1, characterized in that: The light difference GXcz is calculated as follows: GXcz=GXdq-GXpj 10. A real-time monitoring system for scanning code payment according to claim 1, characterized in that: When the light difference GXcz is a positive number, it means that the current light data GXdq is higher than the average light GXpj, and a signal is sent to the control and adjustment module to adjust the light to be darker. When the light difference GXcz is a negative number, it means that the current light data GXdq is lower than the average light GXpj, and a signal is sent to the control and adjustment module to adjust the light to be brighter.

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