LTE (Long Term Evolution) three-carrier Port detection portable equipment
By designing LTE three-carrier portable equipment and using three-channel LTE source and dual-channel Modem wireless router modules, the problem of equipment in the existing technology being unable to meet high-level communication security requirements and source signal self-excitation problems has been achieved. Multifunctional detection and stable and efficient equipment operation of terminals of the three major domestic operators.
Patent Information
- Application Number
- CN202420129965.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-01-18
- Publication Date
- 2025-02-11
- Estimated Expiration
- 2034-01-18
AI Technical Summary
The existing technology of portable code detection devices can only obtain IMSI information from mobile phones and cannot meet the needs of the high-level communication security market. At the same time, devices with built-in antennas are prone to self-excitation of source signals when power is high, resulting in unstable equipment operation. Or damaged.
A portable LTE three-carrier portable device is designed, using three-channel LTE source and dual-channel Modem wireless router module, and isolates the antenna cavity and the source cavity through the partition board and the through-line hole, adding the source Isolation from the antenna and a heat dissipation structure are used to improve the stability of the equipment.
It realizes more communication security information detection of terminals of the three major domestic operators, supports output power within 2W, meets indoor or medium- and short-distance business needs, the average power consumption of the whole machine is about 80W, and the built-in battery can support more than 2 hours of continuous Working, the equipment is compact and easy to operate.
Smart Images

Figure CN222464840U_ABST
Abstract
Description
[Technical field]
[0001] The utility model relates to the technical field of communication detection equipment, and in particular to a LTE three-carrier special detection portable device. [Background technology]
[0002] The portable code detection devices in the existing technology can only obtain the IMSI information of the mobile phone, which can no longer meet the market demand for some communication security that requires higher security information; in some wireless devices with built-in antennas, when the power is high, the signal source self-excitation problem often occurs, causing the device to work unstably or even damage the signal source module, which is generally caused by insufficient isolation between the antenna and the signal source. [Contents of the utility model]
[0003] In order to overcome the above problems, the utility model proposes an LTE three-carrier special detection portable device which can effectively solve the above problems.
[0004] The utility model provides a technical solution to solve the above technical problems: provide an LTE three-carrier special detection portable device, including a main body case, a heat dissipation structure, a bottom cover, and an antenna cover, wherein an antenna cavity and a signal source cavity are arranged back to back in the main body case, the heat dissipation structure is arranged in the signal source cavity, the antenna cavity and the signal source cavity are separated by a partition plate, a wire-passing hole is arranged on the partition plate, and the antenna cavity and the signal source cavity are interconnected through the wire-passing hole; the antenna cover is arranged at the opening of the antenna cavity, the bottom cover is arranged at the opening of the signal source cavity, and the bottom cover and the antenna cover are fixedly connected to the main body case respectively; A first base station module, a second base station module, a third base station module, a first power amplifier, a second power amplifier, and a third power amplifier are arranged on one side of the heat dissipation structure, the first base station module is connected to the first power amplifier, the second base station module is connected to the second power amplifier, and the third base station module is connected to the third power amplifier; a wireless router module and a battery module are built into the antenna cavity, the first base station module, the second base station module, and the third base station module are respectively connected to the wireless router module, and the first base station module, the second base station module, the third base station module, the first power amplifier, the second power amplifier, the third power amplifier, and the wireless router module are respectively connected to the battery module.
[0005] Preferably, the first base station module supports Band 1 signals, the second base station module supports Band 3 signals, and the third base station module supports Band 39, Band 34, Band 40 and Band 41 signals.
[0006] Preferably, six fans and heat dissipation teeth are provided on the other side of the heat dissipation structure, and the air outlet direction of the heat dissipation teeth is consistent with that of the fans.
[0007] Preferably, the antenna cavity has a first LTE array antenna, a second LTE array antenna, and a third LTE array antenna built in, and the first LTE array antenna, the second LTE array antenna, and the third LTE array antenna are respectively connected to the ANT interfaces of the first power amplifier, the second power amplifier, and the third power amplifier through radio frequency lines.
[0008] Preferably, the antenna cavity has a built-in PCB antenna support plate, and six PCB antennas are arranged on the PCB antenna support plate. The six PCB antennas are respectively connected to the SCAN interface of the first base station module, the SCAN interface of the second base station module, the WIFI 2.4 interface, the WIFI5.8 interface, the Modem1 interface, and the Modem2 interface of the wireless router module through radio frequency lines.
[0009] Preferably, a switch button, a charging interface, and a SIM card slot are provided on one side of the host housing, and a power display screen and a device handle are provided on the other side of the host housing.
[0010] Preferably, the bottom cover is provided with an air inlet and an air outlet.
[0011] Preferably, the main housing and bottom cover are respectively made of aluminum alloy materials through integrated processing.
[0012] Preferably, the antenna cover is integrally formed by high-strength plastic.
[0013] Preferably, the heat dissipation structure is made of pure aluminum.
[0014] Compared with the prior art, the LTE three-carrier special detection portable device of the utility model has the following beneficial effects:
[0015] 1. The use of three LTE signal sources can not only realize the commonly used functions such as code detection and positioning, but also realize more communication security information detection for the terminals of the three major domestic operators.
[0016] 2. Support output power within 2W, meeting the business needs of indoor or medium and short distance (within 100 meters). The average power consumption of the whole machine is about 80w when working. The built-in battery can support more than 2 hours of continuous work, meeting the needs of portable business.
[0017] 3. The dual-channel Modem wireless router module used provides 5.8G WIFI signals and more than 2 Ethernet ports at the same time, and is very small in size, meeting the structural requirements of being installed on the same plane as the antenna module, thus reducing the size of the device.
[0018] 4. It adopts self-configuration working mode, which is convenient and easy to use, and the output results are simple and clear, meeting the operation needs of non-professionals.
Brief Description of the Drawings
[0019] Figure 1 This is a schematic diagram of the principle framework of the utility model LTE three-carrier special detection portable device;
[0020] Figure 2 This is the first exploded view of a specific embodiment of the LTE three-carrier special detection portable device of the utility model;
[0021] Figure 3 It is a second exploded diagram of a specific embodiment of the LTE three-carrier special detection portable device of the utility model;
[0022] Figure 4 This is a working flow chart of the LTE three-carrier special detection portable device of the utility model. [Specific implementation method]
[0023] In order to make the purpose, technical solution and advantages of the utility model more clear, the utility model is further described in detail below with reference to the accompanying drawings and implementation examples. It should be understood that the specific embodiments described here are only used to explain the utility model and are not used to limit the utility model.
[0024] It should be noted that all directional indications (such as up, down, left, right, front, back, etc.) in the embodiments of the present invention are limited to relative positions on the specified view rather than absolute positions.
[0025] In addition, in the present invention, the descriptions of "first", "second", etc. are only used for descriptive purposes and cannot be understood as indicating or implying their relative importance or implicitly indicating the number of the indicated technical features. Therefore, the features defined as "first" or "second" may explicitly or implicitly include at least one of the features. In the description of the present invention, the meaning of "plurality" is at least two, such as two, three, etc., unless otherwise clearly and specifically defined.
[0026] See also Figure 1 The utility model of the LTE three-carrier special detection portable device includes a first base station module 6, a second base station module 8, a third base station module 10, a wireless router module 12 and a battery module 13. The first base station module 6 is connected to a first power amplifier 7, the second base station module 8 is connected to a second power amplifier 9, and the third base station module 10 is connected to a third power amplifier 11. The first base station module 6, the second base station module 8, and the third base station module 10 are respectively connected to the wireless router module 12. The first base station module 6, the second base station module 8, the third base station module 10, the first power amplifier 7, the second power amplifier 9, the third power amplifier 11, and the wireless router module 12 are respectively connected to the battery module 13.
[0027] The first base station module 6 and the second base station module 8 are FDD-LTE base station modules, and the third base station module 10 is a TDD-LTE base station module. The base station module is used for data processing and signal processing.
[0028] The first base station module 6 supports Band 1 signals, the second base station module 8 supports Band 3 signals, and the maximum output power of each signal is 2 W. The third base station module 10 supports Band 39, Band 34, Band 40 and Band 41 signals.
[0029] The first power amplifier 7 is a first FDD power amplifier, which supports signal amplification of Band 1 frequency band and built-in duplexer filtering.
[0030] The second power amplifier 9 is a second FDD power amplifier, which supports Band 3 signal amplification and built-in duplexer filtering.
[0031] The third power amplifier 11 is a TDD power amplifier, which supports signal amplification and built-in multi-channel filtering in Band 39, Band 34, Band 40 and Band 41 frequency bands.
[0032] The three power amplifiers are used for signal amplification and filtering of the corresponding three base station modules.
[0033] The wireless router module 12 is used to connect this device with the external control terminal APP, forward control instructions and detection data results, and provide public network connection. The wireless router module 12 is connected to the base station module via wired Ethernet, connected to the control terminal APP via WIFI, and connected to the public network via Modem; the power amplifier is connected to the corresponding base station module. The wireless router module 12 provides three 100M / 1000Mbps Ethernet ports, which are connected to the three base station module network ports respectively; provides 2.4G / 5.8G dual-mode WIFI signals for external connection, and also provides 2-way Modem (2 / 3 / 4G adaptive) signals for connection to the public network. The wireless router module 12 is installed in the antenna cavity 05.
[0034] The TDD-LTE base station module provides reception and transmission processing of TDD-LTE signals in four frequency bands, namely Band39 (1.9GHz), Band34 (2.0GHz), Band40 (2.3GHz) and Band41 (2.6GHz). Its corresponding power amplifier also supports signal amplification and filtering in these four frequency bands, and the base station module provides I / O to control the Band selection of the power amplifier module. This signal source provides special detection functions for China Mobile terminals.
[0035] One of the FDD-LTE base station modules provides Band1 (2.1GHz) signal processing, and its corresponding power amplifier also supports Band1 signal amplification and built-in duplexer filtering. This signal source provides special detection functions for both China Unicom and China Telecom terminals. Another FDD-LTE base station module provides Band3 (1.8GHz) signal processing, and its corresponding power amplifier also supports Band3 signal amplification and built-in duplexer filtering. This signal source provides special detection functions for both China Unicom and China Telecom terminals, and will also provide special detection functions for China Mobile terminals in a time-sharing manner.
[0036] See also Figure 2 and Figure 3 , the following is a further explanation of the LTE three-carrier special detection portable device of the present utility model in conjunction with a specific embodiment.
[0037] The utility model of the LTE three-carrier special detection portable device comprises a mainframe case 01, a heat dissipation structure 02, a bottom cover 03, and an antenna cover 04. The mainframe case 01 is provided with an antenna cavity 05 and a signal source cavity 22 back to back. The heat dissipation structure 02 is provided in the signal source cavity 22. The antenna cavity 05 and the signal source cavity 22 are separated by a partition plate. The partition plate is provided with a wire hole 23. The antenna cavity 05 and the signal source cavity 22 are interconnected through the wire hole 23. The antenna cover 04 is provided at the opening of the antenna cavity 05. The bottom cover 03 is provided at the opening of the signal source cavity 22. The bottom cover 03 and the antenna cover 04 are respectively fixedly connected to the mainframe case 01. The mainframe case 01 is divided into the signal source cavity 22 and the antenna cavity 05, which are respectively closed, and the signal reflection problem of the built-in antenna device is effectively solved.
[0038] The first base station module 6, the second base station module 8, the third base station module 10, the first power amplifier 7, the second power amplifier 9, and the third power amplifier 11 are arranged on one side of the heat dissipation structure 02. The first base station module 6 is connected to the first power amplifier 7, the second base station module 8 is connected to the second power amplifier 9, and the third base station module 10 is connected to the third power amplifier 11. Six fans 25 and heat dissipation teeth are arranged on the other side of the heat dissipation structure 02. The heat dissipation teeth are consistent with the air outlet direction of the fan 25.
[0039] The antenna cavity 05 has a built-in wireless router module 12 , a battery module 13 , a first LTE array antenna 14 , a second LTE array antenna 15 , a third LTE array antenna 16 and a PCB antenna support plate 17 .
[0040] A switch button 18 , a charging interface 19 , and a SIM card slot 20 are disposed on one side of the host housing 01 , and a power display screen 21 and a device handle 24 are disposed on the other side of the host housing 01 .
[0041] The bottom cover 03 is provided with an air inlet 26 and an air outlet 27 to facilitate heat dissipation.
[0042] The first base station module 06 is connected to the first power amplifier 07 to form an FDD-LTE1 carrier (Band1), and the Tx and Rx interfaces between them are interconnected through a radio frequency line. The second base station module 08 is connected to the second power amplifier 09 to form an FDD-LTE2 carrier (Band3), and the Tx and Rx interfaces between them are interconnected through a radio frequency line. The third base station module 10 is connected to the third power amplifier 11 to form a TDD-LTE carrier (Band39 / 34 / 40 / 41), and the Tx and Rx interfaces between them are interconnected through a radio frequency line, and the third base station module 10 provides 2 I / O signals connected to the third power amplifier 11 to control it to switch between Band39, Band34, Band40, and Band41.
[0043] The first LTE array antenna 14, the second LTE array antenna 15, and the third LTE array antenna 16 are respectively connected to the ANT interfaces of the first power amplifier 7, the second power amplifier 9, and the third power amplifier 11 through radio frequency lines.
[0044] The PCB antenna support plate 17 is provided with six PCB antennas, which are respectively connected to the SCAN interface of the first base station module 06, the SCAN interface of the second base station module 07, the WIFI 2.4 interface, the WIFI5.8 interface, the Modem1 interface and the Modem2 interface of the wireless router module 12 through radio frequency lines.
[0045] The three LAN ports of the wireless router module 12 are respectively connected to the network ports of the first base station module 6 , the second base station module 8 , and the third base station module 10 through network cables.
[0046] The output port of the battery module 13 provides multiple DC 12V power supplies after passing through the switch button 18, and is respectively connected to the power ports of the first base station module 6, the second base station module 8, the third base station module 10, the first power amplifier 7, the second power amplifier 9, the third power amplifier 11, the wireless router module 12, and the fan 25. The input port of the battery module 13 is connected to the charging interface 19. The power display screen 21 is connected in parallel to the output port of the battery module 13.
[0047] The wireless router module 13 has a SIM card 1 corresponding to the Modem 1 and a SIM card 2 corresponding to the Modem 2 inserted into the SIM card slots 20 respectively.
[0048] The antenna cover 04 is provided with a plurality of mounting holes, which are designed to be concealed. After the whole machine is assembled, no mounting hole is directly visible.
[0049] The main chassis 01 and bottom cover 03 are respectively made of integrated aluminum alloy materials; the antenna cover 04 is formed by integrated high-strength plastic; the overall appearance has good appearance and touch; the heat dissipation structure 02 is made of pure aluminum integrated and precisely surface processed, and has good thermal conductivity and shielding effect.
[0050] The LTE base station module adopts the IPC7800 model, and its TDD module supports all LTE-TDD frequency bands of domestic operators, namely Band39, Band34, Band40 and Band41. Its FDD module supports all LTE-FDD frequency bands of domestic operators, namely Band1, Band3, Band5 and Band8. The scanning channel of the TDD base station module shares the working Rx channel, and the FDD base station module has an independent scanning channel. The scanning channel can realize the scanning of the cell signals of the actual frequency points of various operators around the device, and extract the effective information after decoding and analysis, so as to further support the automatic configuration of the working parameters of the device.
[0051] The TDD power amplifier adopts the HRPL1926M-4-33 model, with a maximum output power of 2W (33dBm), an uplink gain of 20dB, supports Band39, Band34, Band40, Band41 broadband output, and supports four frequency band filtering and channel switching. The first FDD power amplifier adopts the HRPL2140-60-33 model, and the second FDD power amplifier adopts the HRPL1842-75-33 model, with a maximum output power of 2W (33dBm) and a receiving gain of 20dB.
[0052] The wireless router module 12 adopts the HD-X2 industrial intelligent gateway model, supports 2.4G and 5.8G WIFI, supports more than 3 LAN ports, and supports 2 Modem intelligent working routing.
[0053] The battery module 13 uses a 18650 battery pack, and the large-capacity configuration is a double-layer 333 arrangement. After being fully charged, it can support full-load working time for more than 2 hours; the power display screen 21 can switch to display the power percentage or voltage value. The charging interface 19 is a DC power input interface, using a DC-099 5.5*2.1 metal socket. The switch button 18 uses a LB21B metal button switch with built-in LED lighting.
[0054] See also Figure 4 , provides a workflow for detecting the characteristic codes of LTE three-network users.
[0055] During the boot process, when each LTE module enters the initialization process, it shakes hands with the APP to obtain the working parameter mode. Mode 1 uses the last configuration parameters, and mode 2 uses the re-scan network self-configuration parameters. The configuration parameters of mode 1 are actually the saved results of the last network scan self-configuration parameters. The advantage is that the time for re-scanning network self-configuration is omitted, and the working state is entered faster. It is suitable for the case where the working city has not changed.
[0056] The network scanning and self-configuration process requires re-scanning and self-configuration after powering on in the case of a change of city or long-term non-use. In this process, the TDD-LTE and FDD-LTE modules scan all the working frequencies of the three major operators in China, obtain the current valid frequency number, physical cell number, signal strength, and parse the internal information of each system broadcast (SIB), mainly SIB1-SIB5 information, including PLMN, access conditions, neighboring cell information, priority relationship, etc. The self-configuration algorithm of each module integrates the signal strength and priority information, arranges and saves the working frequency list and their respective patrol work strategy values.
[0057] Establish a cell, prompt that it is ready to work, and enter the standby state to wait. In this step, each module establishes a cell according to the first working frequency in the working frequency list and sends a ready notification to the APP.
[0058] Mobile detection feature code process, after receiving the APP's command to turn on the radio frequency, the TDD-LTE module and the FDD-LTE2 module enter the mobile detection and feature code extraction workflow, and control the wireless router's Modem to work under the Modem2 route to ensure the normal access process of mobile communications. Among them, the FDD-LTE2 module works at the mobile's only FDD Band3 frequency point, and the TDD-LTE module works in multiple TDD frequencies according to the patrol rules. These working frequencies are included in Band39, Band34, Band40, and Band41. When the first round of mobile working frequencies is completed, the radio frequency is automatically turned off, the configuration is changed, and the telephone connection workflow is ready to start.
[0059] Telecom and Unicom (referred to as Telecom Union) detect feature code process. After automatically entering the process, the FDD-LTE1 and FDD-LTE2 modules enter the Telecom Union detection code and feature code extraction workflow, turn on the radio frequency, and control the wireless router's Modem to work under the Modem1 route to ensure that the Telecom Union communication access process is normal. Among them, the FDD-LTE1 module patrols under multiple frequencies of Telecom and Unicom's Band1, and the FDD-LTE2 module patrols under multiple frequencies of Telecom and Unicom's Band3. When the first round of Telecom Union working frequencies is completed, the radio frequency is automatically turned off, the configuration is changed, and preparations are made to start the mobile workflow.
[0060] After that, the device will work in a cycle of moving and connecting until the end. The end process is divided into receiving a command to turn off the radio frequency, or the device is directly turned off. After receiving the command to turn off the radio frequency, the device returns to the initial standby state.
[0061] The LTE three-carrier special detection portable device of the utility model can provide more mobile phone information besides IMSI, support the terminals of the three major domestic operators, and meet the market demand for high-level communication security. At the same time, it provides a structural design and a portable special detection device that completely isolates the signal source and the antenna.
[0062] Compared with the prior art, the LTE three-carrier special detection portable device of the utility model has the following beneficial effects:
[0063] 1. The use of three LTE signal sources can not only realize the commonly used functions such as code detection and positioning, but also realize more communication security information detection for the terminals of the three major domestic operators.
[0064] 2. Support output power within 2W, meeting the business needs of indoor or medium and short distance (within 100 meters). The average power consumption of the whole machine is about 80w when working. The built-in battery can support more than 2 hours of continuous work, meeting the needs of portable business.
[0065] 3. The dual-channel Modem wireless router module used provides 5.8G WIFI signals and more than 2 Ethernet ports at the same time, and is very small in size, meeting the structural requirements of being installed on the same plane as the antenna module, thus reducing the size of the device.
[0066] 4. It adopts self-configuration working mode, which is convenient and easy to use, and the output results are simple and clear, meeting the operation needs of non-professionals.
[0067] The above description is only a preferred embodiment of the present invention, and does not limit the patent scope of the present invention. Any modifications, equivalent substitutions and improvements made within the concept of the present invention should be included in the patent protection scope of the present invention.
Claims
1. An LTE three-carrier special detection portable device, characterized in that: It includes a mainframe case, a heat dissipation structure, a bottom cover, and an antenna upper cover. The mainframe case is provided with an antenna cavity and a signal source cavity back to back. The heat dissipation structure is provided in the signal source cavity. The antenna cavity and the signal source cavity are separated by a partition plate. The partition plate is provided with a wire hole. The antenna cavity and the signal source cavity are interconnected through the wire hole. The antenna upper cover is arranged at the opening of the antenna cavity, the bottom cover is arranged at the opening of the information source cavity, and the bottom cover and the antenna upper cover are respectively fixedly connected to the mainframe box; A first base station module, a second base station module, a third base station module, a first power amplifier, a second power amplifier, and a third power amplifier are arranged on one side of the heat dissipation structure, wherein the first base station module is connected to the first power amplifier, the second base station module is connected to the second power amplifier, and the third base station module is connected to the third power amplifier; The antenna cavity has a built-in wireless router module and a battery module. The first base station module, the second base station module, and the third base station module are respectively connected to the wireless router module. The first base station module, the second base station module, the third base station module, the first power amplifier, the second power amplifier, the third power amplifier, and the wireless router module are respectively connected to the battery module.
2. The LTE three-carrier special detection portable device as claimed in claim 1, characterized in that: The first base station module supports Band 1 signals, the second base station module supports Band 3 signals, and the third base station module supports Band 39, Band 34, Band 40 and Band 41 signals.
3. The LTE three-carrier special detection portable device as claimed in claim 1, characterized in that: Six fans and heat dissipation teeth are arranged on the other side of the heat dissipation structure, and the air outlet direction of the heat dissipation teeth is consistent with that of the fans.
4. The LTE three-carrier special detection portable device as claimed in claim 1, characterized in that: The antenna cavity has a first LTE array antenna, a second LTE array antenna, and a third LTE array antenna built in. The first LTE array antenna, the second LTE array antenna, and the third LTE array antenna are respectively connected to the ANT interfaces of the first power amplifier, the second power amplifier, and the third power amplifier through radio frequency lines.
5. The LTE three-carrier special detection portable device as claimed in claim 1, characterized in that: The antenna cavity is equipped with a PCB antenna support plate, on which six PCB antennas are arranged. The six PCB antennas are respectively connected to the SCAN interface of the first base station module, the SCAN interface of the second base station module, the WIFI 2.4 interface, the WIFI5.8 interface, the Modem1 interface, and the Modem2 interface of the wireless router module through radio frequency lines.
6. The LTE three-carrier special detection portable device as claimed in claim 1, characterized in that: A switch button, a charging interface, and a SIM card slot are arranged on one side of the mainframe housing, and a power display screen and a device handle are arranged on the other side of the mainframe housing.
7. The LTE three-carrier special detection portable device as claimed in claim 1, characterized in that: The bottom cover is provided with an air inlet and an air outlet.
8. The LTE three-carrier special detection portable device as claimed in claim 1, characterized in that: The mainframe housing and bottom cover are respectively made of aluminum alloy materials through integrated processing.
9. The LTE three-carrier special detection portable device as claimed in claim 1, characterized in that: The antenna cover is formed by integrated processing of high-strength plastic.
10. The LTE three-carrier special detection portable device according to claim 1, characterized in that: The heat dissipation structure is made of pure aluminum.