Portable wireless communication radio station system based on modular splicing and use method

Abstract

The invention belongs to the field of radio stations, and particularly relates to a portable wireless communication radio station system based on modular splicing and a use method. The portable wireless communication radio station system based on modular splicing comprises a plurality of functional modules; the external contours of all the functional modules are of columnar structures and have the same cross section shape and size; quick connection interfaces are arranged at the two ends of each functional module, and each quick connection interface comprises a mechanical connection structure and an electrical connection structure, so that any two functional modules can be directly spliced and fixed through the quick connection interfaces and are communicated through electrical signals. According to the portable wireless communication radio station system, the configuration can be automatically identified through a standardized columnar module and a unified rapid interface, and the portability, the deployment speed and the configuration flexibility are greatly improved.

Description

Technical Field

[0001] This invention belongs to the field of radio, specifically relating to a portable wireless communication radio system based on modular splicing and its usage method. Background Technology

[0002] Existing portable radios (such as shortwave radios and broadband self-organizing network radios) typically consist of a main unit, battery, and antenna. These components have the following inherent drawbacks: Various shapes and poor portability: The main unit, battery and antenna are usually square boxes or cylinders of different shapes. The combined structure is irregular, making it difficult to pack, carry and store. They are also prone to getting snagged during travel.

[0003] Complex connections and slow deployment: Each component needs to be connected via independent cables and dedicated interfaces, which is cumbersome to operate. In emergency situations or harsh environments (such as at night or in the rain), the deployment speed is slow and it is easy to connect the wrong interfaces.

[0004] Fixed configuration and low flexibility: The radio's battery life and communication performance are fixed at the factory. Users cannot flexibly increase battery capacity to extend battery life or replace / add antennas to improve gain and communication range according to mission requirements.

[0005] Maintenance and logistics are complex: failure of any component can paralyze the entire radio system, and logistics require the stockpiling of complete parts with various shapes and interfaces, which is costly and inefficient.

[0006] Elevation difficulties: Communication radios are usually used at a higher elevation for better communication. Traditional radios require specially designed clamps and supports for elevation, resulting in a variety of types and poor uniformity.

[0007] Therefore, there is an urgent need in this field for a radio design that can solve the above problems. Summary of the Invention

[0008] The technical problem this invention aims to solve is to provide a portable wireless communication radio system based on modular assembly and its usage method. Through standardized columnar modules and a unified, fast interface, the portable wireless communication radio system can be automatically identified and configured, achieving a significant improvement in portability, deployment speed, and configuration flexibility.

[0009] This invention provides a portable wireless communication radio system based on modular splicing, comprising: Multiple functional modules, wherein the functional modules include at least two of the following: a host module, a battery module, and an antenna module; All of the aforementioned functional modules have a columnar outer profile and the same cross-sectional shape and size; The functional modules are provided with quick-connect interfaces at both ends. The quick-connect interfaces include mechanical connection structures and electrical connection structures, so that any two functional modules can be directly spliced ​​and fixed and electrically connected through the quick-connect interfaces. Furthermore, it also includes a storage module; The storage module has an internal cavity, the internal contour shape and size of which are adapted to the external contour shape and size of the functional module, for accommodating one or more of the functional modules.

[0010] Furthermore, the storage module itself is configured as a support frame; one end of the support frame is used to stably stand on the support surface, and the other end is provided with the quick connection interface, so that the radio assembled from the functional modules can be fixedly installed on the top of the support frame through the interface.

[0011] Furthermore, the storage module has a cavity with an opening and a removable cover; the quick-connect interface on the storage module is located at the end opposite to the cavity opening; when the storage module is used as a support, the end with the quick-connect interface forms the top of the support.

[0012] Furthermore, a plurality of fixing rods are provided on one end face of the cover, and the free end of the fixing rods is detachably provided with a buffer sleeve; The cover is rotatably mounted on the cavity opening and has two working states: In the first state, the cover closes the cavity, and one end of the cover connected to the fixing rod is located inside the receiving cavity; at this time, the end of the fixing rod is fitted with the buffer sleeve, which is used to press the functional module placed inside the receiving cavity. In the second state, the cover closes the cavity, and the fixing rod is located outside the receiving cavity; at this time, the fixing rod constitutes a ground nail for insertion into the support surface to enhance the fixation stability of the bracket.

[0013] Furthermore, the external contours of all the aforementioned functional modules are cylindrical structures.

[0014] Furthermore, the electrical connection structure of the quick-connect interface includes: The first interface component is located at the end of a functional module, and its end face is provided with multiple concentrically distributed annular conductive contacts. The second interface component is located at the end of another functional module, and its end face is provided with a plurality of elastic conductive contacts that correspond one-to-one with the annular conductive contacts. When two functional modules are connected through the mechanical connection structure, each of the elastic conductive contacts on the second interface component and the corresponding annular conductive contacts on the first interface component are pressed and maintain electrical contact, thereby realizing the electrical connection of the modules at any radial angle.

[0015] Furthermore, the mechanical connection structure of the quick-connect interface includes: An external threaded connection is located at the end of a functional module; An internal threaded connection is located at the end of another functional module; The external threaded connection part is adapted to the internal threaded connection part, and the two functional modules are connected and fixed by screwing.

[0016] Furthermore, the first interface component is disposed within the internal threaded connection portion, and the second interface component is disposed on the end face of the external threaded connection portion.

[0017] The present invention also provides a method for using the above-mentioned portable wireless communication radio system based on modular splicing, wherein the functional modules include at least a host module, and the method includes the following steps: Step S1: Connect at least one host module and one or more other functional modules sequentially through the quick connection interface to complete the physical and electrical connection, and power on the system; Step S2: The host module sends an identity query command to all other electrically connected functional modules in the system through the system data communication link formed by the electrical connection structure; Step S3: After receiving the query instruction, each of the functional modules returns its own identity information and parameter information to the host module through the system data communication link; Step S4: The host module automatically configures the working parameters of the entire system based on the identity and parameter information of all the functional modules received, so that all connected functional modules can enter a collaborative working state.

[0018] The portable wireless communication radio system based on modular splicing provided by this invention has the following specific advantages: First, the uniform columnar structure eliminates the irregular protrusions of traditional equipment, making it easier for users to bundle, carry, and store. At the same time, the columnar structure itself has excellent pressure and impact resistance, making it more adaptable to harsh environments such as field emergencies.

[0019] Second, users do not need to identify and connect complex cables and dedicated interfaces. They can simply assemble the entire system by sequentially connecting the required modules through quick-connect interfaces, much like "building blocks." This reduces deployment time from minutes to seconds, greatly improving response speed in emergency situations and lowering the operational threshold.

[0020] Third, the system breaks through the limitations of traditional radio functions and fixed battery life. Users can freely combine functions according to specific task requirements, such as linearly increasing battery life by connecting multiple battery modules in series; adapting to complex electromagnetic environments by replacing antenna modules of different frequency bands or types; and easily connecting functional modules such as GPS, sensors, and encryption, thus achieving platform-based expansion.

[0021] Fourth, when any functional module malfunctions, it can be quickly located and replaced without having to send the entire system back to the factory for repair, which greatly improves the system's survivability and uptime during missions.

[0022] Fifth, logistics support only requires the storage of common standard functional modules, without the need to prepare complicated parts for different models and shapes of complete machines, which significantly simplifies supply chain management and reduces spare parts inventory costs and maintenance costs.

[0023] In summary, this invention fundamentally solves the inherent defects of existing portable radios in terms of portability, deployment speed, configuration flexibility, and maintainability, and provides a wireless communication solution that meets the needs of modern, highly mobile applications. Attached Figure Description

[0024] Figure 1 This is a schematic diagram of the structure of the present invention in its stored state; Figure 2 This is a schematic diagram of the structure of the present invention in the deployment state; Figure 3 This is a schematic diagram of the functional modules in this invention.

[0025] In the diagram, 1-functional module; 2-storage module; 3-quick connection interface. Detailed Implementation

[0026] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the scope of protection of the present invention.

[0027] 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 only used to explain the relative positional relationship and movement of each component in a certain specific posture (as shown in the figure). If the specific posture changes, the directional indication will also change accordingly.

[0028] Furthermore, in this invention, descriptions involving "first," "second," etc., are for descriptive purposes only and should not be construed as indicating or implying their relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include at least one of that feature. In the description of this invention, "a plurality of" means at least two, such as two, three, etc., unless otherwise explicitly specified.

[0029] In this invention, unless otherwise explicitly specified and limited, the terms "connection," "fixed," etc., should be interpreted broadly. For example, "fixed" can mean a fixed connection, a detachable connection, or an integral part; it can mean a mechanical connection, an electrical connection, a physical connection, or a wireless communication connection; it can mean a direct connection or an indirect connection through an intermediate medium; it can mean the internal communication of two elements or the interaction between two elements, unless otherwise explicitly limited. Those skilled in the art can understand the specific meaning of the above terms in this invention according to the specific circumstances.

[0030] Furthermore, the technical solutions of the various embodiments of the present invention can be combined with each other, but only if they are feasible for those skilled in the art. If the combination of technical solutions is contradictory or cannot be implemented, it should be considered that such combination of technical solutions does not exist and is not within the scope of protection claimed by the present invention.

[0031] like Figures 1-3 As shown, the present invention provides a portable wireless communication radio system based on modular splicing, comprising: Multiple functional modules 1 are provided, including at least two of the following: a host module, a battery module, and an antenna module. Each module can be provided in one or more configurations. The host module integrates a radio frequency transceiver unit, a baseband processing unit, a modem, a control unit, and electrical connection structures. The battery module integrates battery cells, battery management circuitry, and electrical connection structures. The antenna module integrates a radiator (such as a helical antenna or whip antenna), impedance matching circuitry, and electrical connection structures.

[0032] All of the functional modules 1 have a columnar outer contour and the same cross-sectional shape and size. The heights of the multiple functional modules 1 can be the same or different, depending on the specific needs. The functional module 1 is provided with quick connection interfaces 3 at both ends. The quick connection interface 3 includes a mechanical connection structure and an electrical connection structure, so that any two functional modules 1 can be directly spliced ​​and fixed and electrically connected through the quick connection interface 3. The portable wireless communication radio system based on modular splicing provided by this invention has the following specific advantages: First, the uniform columnar structure eliminates the irregular protrusions of traditional equipment, making it easier for users to bundle, carry, and store. At the same time, the columnar structure itself has excellent pressure and impact resistance, making it more adaptable to harsh environments such as field emergencies.

[0033] Second, users do not need to identify and connect complex cables and dedicated interfaces. They can simply assemble the entire system by sequentially connecting the required modules through the quick-connect interface 3, much like "building blocks." This reduces deployment time from minutes to seconds, greatly improving response speed in emergency situations and lowering the operational threshold.

[0034] Third, the system breaks through the limitations of traditional radio functions and fixed battery life. Users can freely combine functions according to specific task requirements, such as linearly increasing battery life by connecting multiple battery modules in series; adapting to complex electromagnetic environments by replacing antenna modules of different frequency bands or types; and easily connecting functional modules such as GPS, sensors, and encryption, thus achieving platform-based expansion.

[0035] Fourth, if any functional module 1 fails, it can be quickly located and replaced without having to send the entire system back to the factory for repair, which greatly improves the survivability and uptime during the mission.

[0036] Fifth, logistics support only requires the storage of standard functional modules 1, without the need to prepare complicated parts for different models and shapes of complete machines, which significantly simplifies supply chain management and reduces spare parts inventory costs and maintenance costs.

[0037] In summary, this invention fundamentally solves the inherent defects of existing portable radios in terms of portability, deployment speed, configuration flexibility, and maintainability, and provides a wireless communication solution that meets the needs of modern, highly mobile applications.

[0038] In one embodiment, a storage module 2 is also included; The storage module 2 has an internal cavity, the shape and size of which are adapted to the external shape and size of the functional module 1, for accommodating one or more of the functional modules 1.

[0039] In this embodiment, the following effects are achieved: First, the storage module 2 provides a unified and dedicated storage space for all the scattered functional modules 1, solving the problem of functional modules 1 being easily scattered and lost due to modularity. All functional modules 1 can be stored in an orderly and compact manner, realizing the transformation from a set of parts to a complete set of equipment, greatly improving the convenience and neatness of carrying.

[0040] Second, during transportation and travel, the outer shell of the storage module 2 can provide effective physical protection for the internal precision functional modules 1 (especially the host and antenna), avoiding bumps, squeezing, and the intrusion of dust and moisture, thus improving the reliability and lifespan of the system in complex environments.

[0041] Third, the design of the cavity and the functional module 1 are precisely matched to maximize space utilization. The entire system is accommodated with the smallest external volume, avoiding the cavities and shaking common in traditional packaging. It is especially suitable for packing into standard backpacks or equipment cases.

[0042] Fourth, users no longer need to worry about how to pack and carry these irregular parts, achieving a smooth experience of "ready to use and ready to go." At the same time, for equipment managers, the unified storage module 2 also makes inventory management and status checks more convenient.

[0043] In one embodiment, the storage module 2 itself is configured as a support; one end of the support is used to stand stably on the support surface, and the other end is provided with the quick connection interface 3, so that the radio assembled from the functional modules 1 can be fixedly installed on the top of the support through the interface.

[0044] In this embodiment, by reusing the storage module as a support, the integrated function of storage and support is realized, eliminating the trouble of carrying a separate support, further reducing the load on the move and simplifying the equipment system; during deployment, there is no need to find or assemble additional supports, and the storage tube can be directly converted into a stable base, enabling the radio to be quickly erected, effectively improving the communication distance and signal quality; it not only greatly improves the deployment speed and ease of operation, especially in emergency or field environments, but also reduces the logistics cost and failure rate of the entire system by reducing the number of independent components.

[0045] In this embodiment, when the storage module 2 is used simply as a support, the quick-connect interface 3 can use only the mechanical connection structure of the quick-connect interface 3. When the storage module 2 is also used as an auxiliary device, such as when electrical equipment is installed on the storage module 2, the electrical connection structure of the quick-connect interface 3 is also used. The specific choice depends on the actual needs.

[0046] The electrical equipment on storage module 2 can be a built-in charging management unit: it can be connected to an external power source (such as AC power, a generator, or a solar panel) to charge the battery modules attached to it through a system interface, making the storage module a charging dock. It can also be an environmental sensing sensor: integrating temperature, humidity, air pressure, or vibration sensors, enabling the system to collect and transmit sensing data about the deployment environment. And so on.

[0047] In one embodiment, the receiving cavity of the storage module 2 has an opening, and a removable cover is provided on the opening; the quick connection interface 3 on the storage module 2 is provided at one end away from the opening; when the storage module 2 is used as a support, the end with the quick connection interface 3 constitutes the top of the support.

[0048] In this embodiment, the quick-connect interface 3 is precisely positioned at the bottom of the storage module 2 (i.e., the end opposite to the cavity opening), achieving seamless structural switching and efficient collaboration between storage and support functions. When used as a storage tube, the functional module 1 can be inserted through the cavity opening, with the interface end of the storage module 2 providing reliable support as a sturdy tube bottom. When converted into a support, this interface end becomes a stable top connection point, ensuring that the radio body assembled from the functional modules 1 can be stably and uprightly erected, thereby effectively improving signal coverage. This design makes the switching of functional modes intuitive and quick, requiring no additional parts, truly achieving instantaneous switching from storage to working state, greatly improving the equipment's combat efficiency and user experience.

[0049] In one embodiment, a plurality of fixing rods are provided on one end face of the cover, and the free end of the fixing rods is detachably provided with a buffer sleeve; The cover is rotatably mounted on the cavity opening and has two working states: In the first state, the cover closes the cavity, and one end of the cover connected to the fixing rod is located inside the receiving cavity; at this time, the end of the fixing rod is fitted with the buffer sleeve, which is used to press the functional module 1 placed inside the receiving cavity; In the second state, the cover closes the cavity, and the fixing rod is located outside the receiving cavity; at this time, the fixing rod constitutes a ground nail for insertion into the support surface to enhance the fixation stability of the bracket.

[0050] In this embodiment, by setting a fixing rod and a buffer sleeve on the cover, and by allowing the cover to be installed at the cavity opening in both directions, the dual functions of internal compression and external stabilization are achieved. In the stored state, the fixing rod, together with the buffer sleeve, extends deep into the cavity, acting like a built-in elastic pressure rod, effectively eliminating the risk of shaking and impact during transportation and carrying of the functional module 1, thus improving the protection level and equipment reliability. In the erected state, flipping the cover exposes the fixing rod, which immediately transforms into a stable ground stake, firmly embedding itself in soft ground such as grass and sand, greatly enhancing the wind resistance and overall stability of the support in complex terrain. Combined with wind ropes, stable fixation can be achieved, thereby ensuring communication quality.

[0051] In one embodiment, the outer contour of all the functional modules 1 is a cylindrical structure.

[0052] In this embodiment, the external contour of functional module 1 is uniformly cylindrical. The cylinder itself has good structural strength, which can evenly distribute external impacts and pressures, significantly improving the module's resistance to pressure and impact, and enhancing the robustness and reliability of the equipment in harsh environments. In addition, its smooth curved surface without sharp edges fundamentally eliminates the risk of snagging, making it easy for users to hold, carry, and quickly take out and put in bags. At the same time, its regular shape makes it easy to tie and fix, achieving ultimate portability.

[0053] In one embodiment, the electrical connection structure of the quick-connect interface 3 includes: The first interface component is located at the end of a functional module 1, and its end face is provided with a plurality of concentrically distributed annular conductive contacts. The second interface component is located at the end of another functional module 1, and its end face is provided with a plurality of elastic conductive contacts that correspond one-to-one with the annular conductive contacts. When two functional modules 1 are connected through the mechanical connection structure, each of the elastic conductive contacts on the second interface component and the corresponding annular conductive contacts on the first interface component are pressed and maintain electrical contact, thereby realizing the electrical connection of the modules at any radial angle.

[0054] In this embodiment, an electrical connection structure employing concentric ring-shaped conductive contacts and elastic conductive contacts is used. The design of the ring-shaped conductive contacts fundamentally eliminates directional limitations during connection, eliminating the need for circumferential alignment during module assembly. This enables true blind insertion and rapid, reliable connection at any radial angle, significantly improving deployment speed and reducing operational difficulty. The combination of the elastic contact and the planar ring-shaped contact ensures that multiple electrical contacts can be synchronously and stably crimped during mechanical connection, effectively avoiding poor contact caused by uneven force on individual pins, and significantly improving the electrical reliability and durability of the connection. This interface structure integrates multiple channels such as power and data signals into a compact end face, not only achieving modularization and standardization of electrical connections but also laying the foundation for system function expansion. Furthermore, its simple planar contact form is more resistant to environmental factors (such as dust and moisture) than traditional pin-type interfaces.

[0055] In one embodiment, the mechanical connection structure of the quick-connect interface 3 includes: An external threaded connection is provided at the end of a functional module 1; An internal threaded connection is located at the end of another functional module 1; The external threaded connection part is adapted to the internal threaded connection part, and the two functional modules 1 are connected and fixed by screwing.

[0056] In this embodiment, a mechanical connection structure with internal and external threads is employed. The threaded connection has self-locking properties, ensuring that the modules remain firmly connected even under harsh environments such as vibration and impact, preventing accidental loosening and greatly improving the mechanical reliability of the system. This structure allows for rapid assembly and disassembly through a simple screwing action, making operation intuitive and convenient, requiring no additional tools. Furthermore, the precisely fitted threads naturally guide the two end faces to align during tightening, ensuring accurate contact for electrical connections. In addition, the threaded connection structure itself has good sealing potential, easily combined with sealing rings to achieve dust and water protection at the module connection points, enhancing environmental adaptability. Moreover, the mature manufacturing process of this structure helps control manufacturing costs and ensure consistency in mass production, laying the foundation for the modularization and standardization of the system.

[0057] Preferably, the external threaded connection part is a threaded post disposed at the end of a functional module 1, the diameter of which is smaller than the outer contour diameter of the functional module 1; the internal threaded connection part is a threaded hole disposed at the end of another functional module, the diameter of which is adapted to the diameter of the threaded post; the threaded post and the threaded hole achieve docking and fixing of the two functional modules by screwing them together.

[0058] In this embodiment, the smaller diameter threaded post provides good guidance and centering during screwing, effectively reducing the alignment difficulty at the beginning of the connection and making the splicing operation smoother. The stepped structure formed between the threaded post and the module body provides an ideal installation position for the sealing ring (such as an O-ring), making it easy to achieve dust and water protection at the connection interface. On the other hand, it also constitutes a mechanical limit to prevent damage to the electrical connection components located at the center of the end face due to excessive screwing. This design can withstand a large axial tensile force and a certain bending moment, ensuring the stability of the overall structure after splicing.

[0059] In one embodiment, the first interface component is disposed within the internal threaded connection portion, and the second interface component is disposed on the end face of the external threaded connection portion.

[0060] In this embodiment, the first interface component (annular conductive contact) is disposed inside the internal threaded connection portion, and the second interface component (elastic conductive contact) is disposed on the end face of the external threaded connection portion. This concealed electrical interface layout provides a natural physical protective barrier formed by the threaded structure for the precision annular contact and elastic contact, effectively preventing accidental scratches, collisions, or dust contamination of the mating end faces during transportation and carrying, significantly improving the long-term reliability and service life of the interface. During the connection operation, the external threaded portion acts as a guide head and is inserted first. The elastic contact on its end face then, under the precise guidance of the thread engagement process, achieves a smooth and stable press-fit with the annular contact inside the internal threaded portion. This "mechanical first, electrical second" sequence effectively prevents damage caused by contact misalignment. At the same time, this structure allows the electrical connection interface to be deeply embedded inside the mechanical connection structure, which is very beneficial for setting up sealing rings and other components around it, thereby achieving efficient dust and water protection for the connection interface and greatly enhancing the system's adaptability to harsh outdoor environments.

[0061] The present invention also provides a method for using the portable wireless communication radio system based on modular splicing as described above, wherein the functional module 1 includes at least a host module, and includes the following steps: Step S1: Connect at least one host module and one or more other functional modules 1 sequentially through the quick connection interface 3 to complete the physical and electrical connection and power on the system; when the functional module 1 includes a battery module, the system is automatically powered on after the electromagnetic module is connected; when the functional module 1 does not include a battery module, the system can be powered on through an external power supply. Step S2: The host module sends an identity query command to all other electrically connected functional modules 1 in the system through the system data communication link formed by the electrical connection structure; Step S3: After receiving the query instruction, each of the functional modules 1 returns its own identity information and parameter information to the host module through the system data communication link; Step S4: The host module automatically configures the working parameters of the entire system based on the identity information and parameter information of all functional modules 1 received, so that all connected functional modules 1 can enter a collaborative working state.

[0062] This invention achieves the adaptive capabilities brought about by hardware modularization through a module identification and collaborative configuration process that is automatically executed after the system is powered on. This method elevates hardware plug-and-play to system-level plug-and-play. After the user completes the physical assembly, no complex manual parameter settings are required; the system automatically identifies the type, quantity, and characteristics of all connected modules and intelligently matches the optimal operating mode. This greatly simplifies the operation process, lowers the professional threshold, and completely avoids human configuration errors. Automatic host configuration based on global module information ensures a high degree of matching between RF parameters, power management strategies, and the current physical combination. For example, it automatically sets the host operating frequency according to the antenna module's frequency band and adjusts the power output strategy according to the total capacity of the battery modules, thus enabling the system to achieve optimal performance and ensure operational safety under any combination. This unified identity recognition and configuration mechanism endows the core hardware platform with extremely high flexibility and scalability. Any new functional module that conforms to the interface standard can be automatically identified and integrated after being connected to the system, truly realizing hot-swappable functions and seamless system expansion. It also provides a unified software foundation for subsequent centralized operation and maintenance and status monitoring.

[0063] In this embodiment, each functional module 1 has a pre-installed identification chip. When the functional modules 1 are assembled, the system main controller (usually located in the host module) will poll and identify the type, serial number, parameters (such as battery capacity, antenna frequency band) and status of all connected functional modules 1 through data contacts, and automatically adjust the system configuration to work together.

[0064] The module identification and collaborative working method described above relies on the physical electrical path established by the unified fast connection interface 3. Those skilled in the art should understand that the specific software implementation of this method is not the inventive point of this invention, but rather a software function that can be naturally realized and optimized after the improvement of the modular hardware structure.

[0065] The steps involved in the method, such as sending and receiving "identity query instructions," reading and parsing "identity identification information and parameter information," and "automatically configuring system operating parameters" based on the identification results, can all be implemented using mature existing technologies in the field. Therefore, the software part of this method can be programmed and implemented by those skilled in the art without creative effort after learning about the modular hardware system architecture of this invention.

[0066] The above description is merely an embodiment and does not constitute any limitation on the present invention. Any person skilled in the art can make many possible variations, modifications, or alterations to the technical solutions of the present invention without departing from the scope of the present invention. Therefore, any simple modifications, equivalent changes, and alterations made to the above embodiments based on the technical essence of the present invention, without departing from the scope of the present invention, should fall within the protection scope of the present invention.

Claims

1. A portable wireless communication radio system based on modular splicing, characterized in that, include: Multiple functional modules, wherein the functional modules include at least two of the following: a host module, a battery module, and an antenna module; All of the aforementioned functional modules have a columnar outer profile and the same cross-sectional shape and size; The functional modules are provided with quick-connect interfaces at both ends. The quick-connect interfaces include mechanical connection structures and electrical connection structures, so that any two functional modules can be directly spliced ​​and fixed and electrically connected through the quick-connect interfaces.

2. The portable wireless communication radio system based on modular splicing as described in claim 1, characterized in that, It also includes a storage module; The storage module has an internal cavity, the internal contour shape and size of which are adapted to the external contour shape and size of the functional module, for accommodating one or more of the functional modules.

3. The portable wireless communication radio system based on modular splicing as described in claim 2, characterized in that, The storage module itself is a support frame; one end of the support frame is used to stand on the support surface, and the other end is provided with the quick connection interface, so that the radio assembled from the functional modules can be fixedly installed on the top of the support frame through the interface.

4. The portable wireless communication radio system based on modular splicing as described in claim 3, characterized in that, The storage module has a cavity with an opening and a removable cover. The quick-connect interface on the storage module is located at the end opposite to the cavity opening. When the storage module is used as a support, the end with the quick-connect interface forms the top of the support.

5. The portable wireless communication radio system based on modular splicing as described in claim 4, characterized in that, A plurality of fixing rods are provided on one end face of the cover, and the free end of the fixing rods is detachably provided with a buffer sleeve; The cover is rotatably mounted on the cavity opening and has two working states: In the first state, the cover closes the cavity, and one end of the cover connected to the fixing rod is located inside the receiving cavity; at this time, the end of the fixing rod is fitted with the buffer sleeve, which is used to press the functional module placed inside the receiving cavity. In the second state, the cover closes the cavity, and the fixing rod is located outside the receiving cavity; at this time, the fixing rod constitutes a ground nail for insertion into the support surface to enhance the fixation stability of the bracket.

6. The portable wireless communication radio system based on modular splicing as described in any one of claims 1-5, characterized in that, All of the aforementioned functional modules have a cylindrical external profile.

7. The portable wireless communication radio system based on modular splicing as described in claim 6, characterized in that, The electrical connection structure of the quick-connect interface includes: The first interface component is located at the end of a functional module, and its end face is provided with multiple concentrically distributed annular conductive contacts. The second interface component is located at the end of another functional module, and its end face is provided with a plurality of elastic conductive contacts that correspond one-to-one with the annular conductive contacts. When two functional modules are connected through the mechanical connection structure, each of the elastic conductive contacts on the second interface component and the corresponding annular conductive contacts on the first interface component are pressed and maintain electrical contact, thereby realizing the electrical connection of the modules at any radial angle.

8. The portable wireless communication radio system based on modular splicing as described in claim 7, characterized in that, The mechanical connection structure of the quick-connect interface includes: An external threaded connection is located at the end of a functional module; An internal threaded connection is located at the end of another functional module; The external threaded connection part is adapted to the internal threaded connection part, and the two functional modules are connected and fixed by screwing.

9. The portable wireless communication radio system based on modular splicing as described in claim 8, characterized in that, The first interface component is disposed inside the internal threaded connection portion, and the second interface component is disposed on the end face of the external threaded connection portion.

10. A method of using a portable wireless communication radio system based on modular splicing as described in any one of claims 1-9, characterized in that, The functional module includes at least a host module, comprising the following steps: Step S1: Connect at least one host module and one or more other functional modules sequentially through the quick connection interface to complete the physical and electrical connection, and power on the system; Step S2: The host module sends an identity query command to all other electrically connected functional modules in the system through the system data communication link formed by the electrical connection structure; Step S3: After receiving the query instruction, each of the functional modules returns its own identity information and parameter information to the host module through the system data communication link; Step S4: The host module automatically configures the working parameters of the entire system based on the identity and parameter information of all the functional modules received, so that all connected functional modules can enter a collaborative working state.

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