Multifunctional wireless adapter

Abstract

The utility model discloses a multifunctional wireless adapter, which belongs to the technical field of wireless adapters, and comprises a structure module, a power supply module and a display module, the structure module is connected with a main control board module, an interface board module, a backboard module and an ETHTCP module; according to the utility model, through the arrangement of the structure module, the ETHTCP module and the exchange chip module, the main control board module in the structure module is like the brain of equipment and can coordinate the work of each module, process data logic and control instruction transmission; the interface board module can be connected with external equipment and comprises an engine interface capable of collecting engine detection data and a reinforced PC interface capable of being connected with a control end or a data analysis end, and the interface board module further comprises a power supply interface capable of ensuring correct access and transmission of signals and a power supply.

Description

Technical Field

[0001] This utility model belongs to the field of wireless adapter technology, and specifically relates to a multifunctional wireless adapter. Background Technology

[0002] A wireless adapter is a device that allows wireless connectivity and data transmission, typically used for network connectivity and power supply. Wireless adapters can be based on PoE adapters, using Wi-Fi modules or 5G modules for data transmission. Mature modules are available on the market that can be easily configured based on Ethernet interfaces and are plug-and-play.

[0003] Existing wireless adapters often fail to meet complex network demands due to their limited functionality, slow data transmission speed, and unstable data transmission. Furthermore, their low integration and poor stability result in low cost-effectiveness. Therefore, a multi-functional wireless adapter is needed to address these issues. Utility Model Content

[0004] The purpose of this invention is to provide a multifunctional wireless adapter to solve the problems mentioned in the background section.

[0005] To achieve the above objectives, this utility model provides the following technical solution: a multifunctional wireless adapter, comprising a structural module, a power module, and a display module. The structural module is connected to a main control board module, an interface board module, a backplane module, an ETH_TCP module, a switching chip module, a wireless module, an AP module, an STA module, and a combination module. The power module is connected to the structural module, the ETH_TCP module, the switching chip module, and the wireless module. The display module is connected to the structural module, the ETH_TCP module, the switching chip module, and the wireless module.

[0006] By setting up the above structure, the main control board module in the structural module acts as the "brain" of the device, coordinating the work of each module, processing data logic, and transmitting control commands. The interface board module can connect to external devices, including an engine interface that can collect engine test data, a ruggedized PC interface that can connect to the control terminal or data analysis terminal, and a power interface that ensures the correct input and output of signals and power. The backplane module provides physical support and wiring channels for data interaction and power transmission between boards, and also ensures the stability of the overall structure and the stability of electrical performance, achieving a compact and reliable mechanical and electrical integration of the device, making it easy to carry and operate on-site. The ETH_TCP module, using its UART to TCP function, can provide a bridge for data conversion between different interface types, enabling data from specific interfaces to adapt to the Ethernet transmission standard, thereby achieving seamless communication with other Ethernet-based interface devices and expanding the compatibility of device connections. The switching chip module can build an efficient and stable network connection architecture and manage the data exchange paths and traffic between the adapter and external devices, ensuring that data can be transmitted at high speed and in an orderly manner, thus avoiding network congestion and data loss, while meeting complex network requirements.

[0007] As a preferred embodiment, the ETH_TCP module is capable of performing 422 to Ethernet conversion.

[0008] As a preferred embodiment, the switching chip module enables comprehensive control over port configuration, flow control, and VLAN management functions.

[0009] As a preferred embodiment, the wireless module enables data transmission between UART, Wi-Fi, and Ethernet.

[0010] As a preferred option, the power module is powered by a lithium battery, which can meet the requirement of two hours of outdoor use and the battery is replaceable, and can also provide a stable power supply for the continuous operation of the entire device.

[0011] As a preferred embodiment, the display module has a display screen that can display the network status in real time.

[0012] By incorporating a wireless module, a power module, and a display module, the wireless module enables wireless data transmission via an external antenna, providing core support for the wireless transmission of test data. It can also wirelessly transmit data collected from the engine to a host computer or other receiving terminals, with a transmission distance of up to 280 meters, ensuring reliable communication within a certain range. The power module, powered by a lithium battery, provides a continuous and stable power supply for the entire device, ensuring the normal operation of the wireless module, switching chip module, ETH_TCP module, and other components. It also overcomes the limitations of use in scenarios without external power, enabling continuous and stable data collection and transmission during outdoor aero-engine testing. The replaceable lithium battery design further enhances the device's endurance flexibility and reliability in the field. The display module intuitively presents the device's network connection status, allowing on-site operators to quickly understand the device's communication status and promptly detect network faults or anomalies. It also assists in determining whether test data transmission is proceeding normally, ensuring smooth testing and data integrity. This improves the device's testing efficiency and accuracy, and enhances its interactivity and operability.

[0013] Compared with the prior art, the beneficial effects of this utility model are:

[0014] This invention, through the arrangement of a structural module, an ETH_TCP module, and a switching chip module, establishes a main control board module within the structural module that acts as the "brain" of the device, coordinating the operation of each module, processing data logic, and transmitting control commands. The interface board module connects to external devices, including an engine interface for acquiring engine test data, a ruggedized PC interface for connecting to a control or data analysis terminal, and a power interface to ensure correct signal and power input and output. The backplane module provides physical support and wiring channels for data interaction and power transmission between boards, and also ensures the overall structural stability and electrical integrity. Stable performance, achieving compact and reliable mechanical and electrical integration, easy to carry and operate in the field; the ETH_TCP module utilizes its UART to TCP function to provide a bridge for data conversion between different interface types, enabling data from specific interfaces to adapt to Ethernet transmission standards, thereby achieving seamless communication with other Ethernet-based interface devices and expanding device connectivity compatibility; the switching chip module can build an efficient and stable network connection architecture, and can manage the data exchange paths and traffic between the adapter and external devices, ensuring high-speed and orderly data transmission, thus avoiding network congestion and data loss, while meeting complex network requirements;

[0015] This invention, by incorporating a wireless module, a power module, and a display module, enables wireless data transmission via an external antenna. The wireless module provides core support for the wireless transmission of test data and can wirelessly transmit data collected from the engine to a host computer or other receiving end, with a transmission distance of up to 280 meters, ensuring reliable communication within a certain range. The power module, powered by a lithium battery, provides a continuous and stable power supply for the entire device, ensuring the normal operation of the wireless module, switching chip module, ETH_TCP module, and other components. It also overcomes the limitations of use in scenarios without external power, enabling continuous and stable data collection and transmission during outdoor aero-engine testing. The replaceable lithium battery design further enhances the device's endurance flexibility and reliability in field use. The display module intuitively presents the device's network connection status, allowing on-site operators to quickly understand the device's communication status and promptly detect network faults or anomalies. It also assists in determining whether test data transmission is proceeding normally, ensuring smooth testing and data integrity. This improves the device's testing efficiency and accuracy, and enhances its interactivity and operability. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the module connection structure of this utility model;

[0017] Figure 2 This is a structural diagram showing the connection of the structural modules of this utility model;

[0018] Figure 3 This is a schematic diagram of the wireless module connection structure of this utility model;

[0019] Figure 4 This is a schematic diagram of the implementation scheme of this utility model.

[0020] In the diagram: 1. Structural module; 11. Main control board module; 12. Interface board module; 13. Backplane module; 2. ETH_TCP module; 3. Switching chip module; 4. Wireless module; 41. AP module; 42. STA module; 43. Combination module; 5. Power supply module; 6. Display module. Detailed Implementation

[0021] The present invention will be further described below with reference to the embodiments.

[0022] The following embodiments are used to illustrate the present invention, but should not be used to limit the scope of protection of the present invention. The conditions in the embodiments can be further adjusted according to specific conditions, and simple improvements to the method of the present invention under the premise of the concept of the present invention are all within the scope of protection claimed by the present invention.

[0023] Please see Figure 1-4 This utility model provides a multifunctional wireless adapter, including a structural module 1, a power module 5, and a display module 6. The structural module 1 is connected to a main control board module 11, an interface board module 12, a backplane module 13, an ETH_TCP module 2, a switching chip module 3, a wireless module 4, an AP module 41, a STA module 42, and a combination module 43. The power module 5 is connected to the structural module 1, the ETH_TCP module 2, the switching chip module 3, and the wireless module 4. The display module 6 is connected to the structural module 1, the ETH_TCP module 2, the switching chip module 3, and the wireless module 4. By configuring the structural module 1, the ETH_TCP module 2, and the switching chip module 3, the main control board module 11 in the structural module 1 acts as the "brain" of the device, coordinating the operation of each module, processing data logic, and transmitting control commands. Interface board module 12 can connect to external devices, including an engine interface for collecting engine test data, a ruggedized PC interface for connecting to a control or data analysis terminal, and a power interface to ensure correct signal and power input and output. Backplane module 13 provides physical support and wiring channels for data interaction and power transmission between boards, and ensures the overall structural stability and electrical performance stability, achieving compact and reliable mechanical and electrical integration for easy portability and field operation. ETH_TCP module 2, utilizing its UART-to-TCP function, provides a bridge for data conversion between different interface types, enabling data from specific interfaces to adapt to Ethernet transmission standards, thereby achieving seamless communication with other Ethernet-based devices and expanding device connectivity compatibility. Switching chip module 3 can build an efficient and stable network connection architecture and manage data exchange paths and traffic within the adapter and between the adapter and external devices, ensuring high-speed and orderly data transmission, thus avoiding network congestion and data loss, while meeting complex network requirements.

[0024] The ETH_TCP module 2 can realize the 422 to Ethernet function.

[0025] Switching chip module 3 enables comprehensive control over port configuration, flow control, and VLAN management functions.

[0026] Wireless module 4 enables data transmission between UART, Wi-Fi, and Ethernet.

[0027] Power module 5 is powered by a lithium battery, which can meet the requirements of two hours of outdoor use and the battery is replaceable, and can also provide a stable power supply for the operation of the entire device.

[0028] The display module 6 has a display screen that can show the network status in real time. By configuring the wireless module 4, power module 5, and display module 6, the wireless module 4 can achieve wireless data transmission via an external antenna, providing core support for the wireless transmission of detection data. It can also wirelessly transmit data collected from the engine to a host computer or other receiving end, with a transmission distance of up to 280 meters, ensuring reliable communication within a certain range. The power module 5 uses a lithium battery, providing a continuous and stable power supply for the entire device, thus ensuring the normal operation of the wireless module 4, switching chip module 3, ETH_TCP module 2, and other components, and overcoming [unspecified challenges]. The absence of external power supply limitations enables continuous and stable data acquisition and transmission during outdoor aircraft engine testing. The replaceable lithium battery further enhances the equipment's flexibility and reliability in field use. The display module 6 intuitively presents the equipment's network connection status, allowing on-site operators to quickly understand the communication status and promptly detect network faults or anomalies. It also assists in determining whether data transmission is proceeding normally, ensuring smooth testing and data integrity. This improves the equipment's testing efficiency and accuracy, while also enhancing its interactivity and operability.

[0029] The working principle and usage process of this utility model are as follows: In the aircraft engine testing environment, the interface board module 12 of the wireless adapter connects to the engine testing interface and acquires testing data. The acquired testing data flows into the ETH_TCP module 2 in a specific format for processing. The ETH_TCP module 2 converts the testing data from its original format to Ethernet format, and then transmits the data to the switching chip module 3 via the backplane module 13. The switching chip module 3 efficiently organizes and schedules the testing data based on port configuration, flow control rules, and VLAN management policies. Part of the processed data is transmitted to the ruggedized PC at a speed of 1G via the reserved RJ45 network interface for further analysis and processing. The other part is transmitted wirelessly by the wireless module 4 using its Wi-Fi function via an external antenna, thus simultaneously realizing the wireless remote transmission and local wired transmission of testing data. At the same time, the wireless adapter will transmit its own network port status and other hardware information in real time through the network interface, such as port link up and link status. The down status is fed back to the host computer software. Operators can intuitively view the network status information through the display screen of display module 6 and use the information to help judge the working status of the equipment. The power module 5 will continuously provide power support for the entire process. With the coordinated work of each module, it will ensure that the aero-engine test data can be stably collected, converted and transmitted, and that the equipment status can be effectively monitored. Thus, it can simultaneously realize efficient remote engine testing, on-site operation and information management.

[0030] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A multifunctional wireless adapter, comprising a structural module (1), a power module (5), and a display module (6), characterized in that: The structural module (1) is connected to a main control board module (11), the structural module (1) is connected to an interface board module (12), the structural module (1) is connected to a backplane module (13), the structural module (1) is connected to an ETH_TCP module (2), the ETH_TCP module (2) is connected to a switching chip module (3), the switching chip module (3) is connected to a wireless module (4), the wireless module (4) is connected to an AP module (41), the wireless module (4) is connected to a STA module (42), and the wireless module... (4) Connected to a combination module (43), the power module (5) is connected to the structure module (1), the power module (5) is connected to the ETH_TCP module (2), the power module (5) is connected to the switching chip module (3), the power module (5) is connected to the wireless module (4), the display module (6) is connected to the structure module (1), the display module (6) is connected to the ETH_TCP module (2), the display module (6) is connected to the switching chip module (3), and the display module (6) is connected to the wireless module (4).

2. A multifunctional wireless adapter according to claim 1, characterized in that: The ETH_TCP module (2) can realize the 422 to Ethernet function.

3. A multifunctional wireless adapter according to claim 1, characterized in that: The switching chip module (3) can achieve comprehensive control over port configuration, flow control, and VLAN management functions.

4. A multi-functional wireless adapter according to claim 1, characterized in that: The wireless module (4) can realize the mutual transmission function between UART, Wi-Fi and Ethernet.

5. A multifunctional wireless adapter according to claim 1, characterized in that: The power module (5) is powered by a lithium battery, which can meet the requirements of two hours of outdoor use and the battery is replaceable. It can also provide stable power for the operation of the entire device.

6. A multi-functional wireless adapter according to claim 1, characterized in that: The display module (6) has a display screen that can display the network status in real time.

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