Tumor specificity multi-target cluster target diagnosis and treatment integrated detection equipment

Abstract

The invention provides tumor specificity multi-target cluster target diagnosis and treatment integrated detection equipment, and aims to realize multi-target synchronous detection and precise treatment. The equipment comprises a shell, a display control panel, a multi-target cluster detection module, an imaging and positioning system, a diagnosis and treatment module, an intelligent data processing unit and a base. A multi-target-point cluster detection module of the equipment adopts a plurality of electrochemical probes which are distributed in a fan shape and are used for independently detecting target points at different angles; the imaging system combines ultrasonic imaging, optical imaging and 3D imaging to realize multi-angle real-time positioning; an adjustable treatment head and a microwave electrode are arranged in the diagnosis and treatment module, so that precise targeted thermal therapy is ensured, and the influence on surrounding tissues is reduced. The intelligent data processing unit can analyze detection data in real time, supports remote diagnosis and treatment through the wireless transmission module, and facilitates cross-regional medical cooperation. The equipment integrates the functions of detection, imaging, diagnosis and treatment and data transmission, is suitable for early detection and accurate treatment of tumors, and can remarkably improve the clinical diagnosis and treatment efficiency.

Description

Technical Field

[0001] The present invention relates to the technical field of medical devices, and particularly to a tumor-specific multi-target cluster target diagnosis and treatment integrated detection device. Background Art

[0002] In today's medical field, the early detection and precise treatment of tumors have become important research directions in oncology. However, existing tumor detection and treatment devices have many deficiencies in multi-target detection, imaging accuracy, and targeted treatment. Traditional tumor detection methods such as CT, MRI, and ultrasonic imaging often can only provide images or planar information from a single perspective, lacking accurate depiction of the three-dimensional structure and multi-target distribution of tumors. At the same time, a single imaging method is difficult to meet the precise detection requirements under the complex morphology of tumors, easily leading to incomplete detection results, thus affecting subsequent diagnosis and treatment effects. Especially in the face of complex and multi-site tumors, existing devices cannot effectively cope with the synchronous detection of multi-target regions, and the diagnosis and treatment process requires repeated operations, increasing the discomfort of patients and the difficulty of treatment.

[0003] In tumor treatment, traditional treatment methods such as radiotherapy, chemotherapy, and surgical operations often cause greater damage to normal tissues and are accompanied by serious side effects. At the same time, many existing treatment devices lack the ability to precisely focus on targets, resulting in the scattering and waste of treatment energy, not only affecting the treatment effect but also potentially causing damage to surrounding healthy tissues. Especially for some tumor sites with multi-target distributions, it is difficult for existing technologies to achieve precise coverage and treatment of each target. Therefore, how to achieve integrated diagnosis and treatment while taking into account the high precision, low invasiveness, and patient comfort of treatment has become a major challenge in the field of tumor treatment.

[0004] In addition, in the development of intelligent diagnosis and treatment devices, current technologies also have limitations in data processing and remote monitoring. Many tumor diagnosis and treatment devices rely on manual operations in data analysis, unable to achieve real-time analysis and feedback of multi-targets, restricting the use efficiency of the devices. Especially in the application scenarios of telemedicine and expert collaboration, the limitations of data transmission and real-time processing make it difficult to fully share medical resources. With the progress of medical imaging technology and intelligent data processing technology, innovative devices that combine multi-modal imaging, intelligent data processing, remote diagnosis, and treatment integration have become an urgent need in the medical industry. Summary of the Invention

[0005] The present invention relates to a tumor - specific multi - target cluster target diagnosis and treatment integrated detection device, aiming to provide an innovative device platform to efficiently and accurately achieve multi - target detection and targeted treatment of tumors. With the development of tumor pathology and the popularization of precision medicine, the early detection and precise treatment of tumors have become increasingly important. However, existing technologies have problems such as insufficient detection coverage, low imaging accuracy, single treatment methods, and poor patient experience. In response to the above problems, the present invention combines a multi - target detection module, an imaging and positioning module, a diagnosis and treatment integrated module, and an intelligent data processing module to achieve the integration of precise detection and treatment of multi - target clusters, ensuring the provision of efficient, comprehensive, and reliable diagnosis and treatment services in a clinical environment.

[0006] The tumor - specific multi - target cluster target diagnosis and treatment integrated detection device of the present invention includes the following main modules: a housing, a display control panel, a multi - target cluster detection module, an imaging and positioning system, a diagnosis and treatment module, a data processing unit, and a base, etc. The specific descriptions are as follows: Housing structure design The housing is a streamlined elliptical cylinder structure, providing overall support and protection for the device and facilitating operation at the same time. Telescopic arms are symmetrically arranged at the front end of the housing, enabling the device to freely adjust its position according to operation needs to ensure wide coverage of the multi - target cluster detection module. In addition, a display control panel is provided at the top of the housing, integrating a touch screen and physical buttons. Users can view imaging data, probe positioning images, and treatment dose parameters in real time through the display screen, and the operation interface is intuitive and convenient.

[0007] Multi - target cluster detection module The multi - target cluster detection module of the present invention adopts a unique design, using multiple electrochemical probes distributed in a fan - shaped manner to achieve synchronous detection of different targets. The probes are made of medical titanium alloy and nanomaterials to ensure high durability and biocompatibility during the detection process. Each probe is connected to the integrated data processing unit through an independent sensor to achieve multi - angle coverage and accurate data acquisition, which is particularly suitable for detecting tumor targets with complex shapes and uneven distributions.

[0008] Imaging and target positioning system The imaging system of this device combines ultrasonic waves, optical lenses, and 3D optical cameras to achieve multi - dimensional imaging functions. The ultrasonic probe and the optical lens are located at the front end of the device, used for high - resolution imaging and precise positioning of the tumor location; the 3D optical camera is located at the bottom, capable of covering the area around the patient. Through image fusion technology, real - time 3D images are provided. This multi - angle and multi - mode imaging method not only improves the accuracy of imaging but also enables medical staff to comprehensively observe the tumor area, providing more intuitive data support for treatment decisions.

[0009] Diagnosis and treatment integrated module The diagnosis and treatment module of the present invention is uniquely designed. It adopts a treatment head with adjustable angle and distance, which is embedded with microwave electrodes inside and is used for precise hyperthermia of the target area. The material of the treatment head is titanium alloy, and its surface is smooth to reduce friction on surrounding tissues. Through the rotating shaft and mounting bracket, the treatment head can be flexibly adjusted at different angles to adapt to the changes in the target position, ensuring the precise focusing and efficient transmission of treatment energy. Compared with traditional radiotherapy, microwave hyperthermia not only reduces the impact on normal tissues but also can adapt to tumors of different types and depths by adjusting the energy output.

[0010] Intelligent data processing unit The data processing unit is located inside the bottom shell of the device. It is responsible for receiving and analyzing the detection data from various sensors and imaging systems and presenting them in real time through the display control panel. The intelligent algorithm built into the data processing unit can automatically identify the shape and location of tumors based on the probe and imaging data, generate a 3D model, and evaluate the treatment effect. In addition, the data processing unit is also equipped with a wireless data transmission module, which can upload the data to the cloud for remote expert diagnosis and treatment decision-making, improving the diagnosis and treatment efficiency.

[0011] Base and portability design The base is equipped with an adjustable double-arm lifting assembly, which realizes the free movement and fixation of the device through telescopic rods and mobile wheels and can adapt to different operating environments. The device is also designed with a portable handle, which is convenient for medical staff to use in different scenarios such as operating rooms and wards, ensuring the versatility and portability of the device. Beneficial effects

[0012] Multi-target cluster detection The present invention realizes the synchronous detection of multiple targets, breaking through the traditional single-target detection mode. Through the connection of multiple electrochemical probes and independent sensors, it realizes the simultaneous scanning and signal acquisition of different tumor targets. This multi-target detection not only improves the detection efficiency but also can obtain more target data in one operation, avoiding repeated operations and reducing the burden on patients.

[0013] Multi-modal imaging and precise positioning The imaging module combines ultrasonic, optical, and 3D optical camera functions, and can obtain multi-angle imaging information of tumors. Compared with traditional single imaging devices, this device can not only accurately identify the surface structure of tumors but also penetrate into the internal tissue layer, generate a 3D model, and provide comprehensive target information. Through the feedback of real-time imaging data, medical staff can more accurately confirm the target position, providing a scientific basis for subsequent treatment.

[0014] Diagnosis and treatment integration and adjustability of the treatment module The treatment module of the present invention realizes the integration of diagnosis and treatment. In particular, the design of the treatment head has the ability to adjust at multiple angles, and the internal microwave electrode can accurately focus the energy on the tumor target, reducing the damage to the surrounding healthy tissues. In addition, the adjustable design of the treatment head ensures the adaptability of the device to different patients and different tumor positions, and has a wider range of application scenarios.

[0015] Intelligent Data Processing and Remote Diagnosis Support The intelligence of the data processing unit greatly improves the usage efficiency of the device. Through the built-in intelligent algorithm, the present invention can automatically analyze and identify tumor information, and perform data processing and remote transmission, which is applicable to the remote diagnosis and treatment scenario. The remote data upload function enables the data to be transmitted to the cloud in real time, facilitating remote analysis by experts and providing effective support for medical institutions in remote areas or lacking experts.

[0016] Portability and Applicability This device has a compact structure. The base is designed with a double-fork arm lifting component and moving wheels, which facilitate movement and fixation in different scenarios such as operating tables and wards, increasing the flexibility of use. In addition, the device has good portability, which is convenient for medical staff to carry and transfer, and is applicable to various application scenarios inside and outside the hospital.

[0017] The invention can be widely applied to the early detection and targeted treatment of tumors, especially suitable for complex tumor cases that require multi-target monitoring. By using this device, hospitals can effectively improve the accuracy of tumor diagnosis and treatment, shorten the patient's consultation time, reduce the discomfort caused by repeated examinations, and enhance the safety and effectiveness of tumor treatment. Especially in the application of telemedicine, the data transmission function helps to achieve cross-regional medical collaboration and provides strong support for medical diagnosis and treatment in remote areas.

[0018] The tumor-specific multi-target cluster target diagnosis and treatment integrated detection device of the present invention is significantly innovative in technology and has multiple functions such as multi-modal imaging, precise positioning, multi-target detection, and intelligent processing, which will provide a more efficient and convenient solution for tumor detection and treatment. Brief Description of the Drawings

[0019] In order to more clearly illustrate the technical solutions in the present invention or the prior art, the following will briefly introduce the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings in the following description are only those of the present invention. For those of ordinary skill in the art, without creative efforts, other drawings can also be obtained based on these drawings.

[0020] Figure 1 It is a schematic external three-dimensional structure diagram of an embodiment of the present invention; Figure 2 It is a schematic external three-dimensional structure diagram of an embodiment of the present invention; Figure 3 Schematic diagram of the external top view structure of the embodiment of the present invention; Figure 4 Schematic diagram of the imaging structure of the embodiment of the present invention; Figure 5 Schematic diagram of the calculation and processing unit and the battery pack installation structure of the embodiment of the present invention; Figure 6 Schematic diagram of the adjustment structure of the mounting bracket of the embodiment of the present invention; Figure 7 For the embodiment of the present invention Figure 4 Enlarged schematic diagram of the partial structure at position A (electrochemical probe structure); Figure 8 For the embodiment of the present invention Figure 6 Enlarged schematic diagram of the partial structure at position B (treatment head height adjustment structure); Figure 9 For the embodiment of the present invention Figure 6 Enlarged schematic diagram of the partial structure at position C (treatment head angle adjustment structure).

[0021] The markings in the figure are: 1. Housing; 2. Base; 3. Telescopic arm; 4. Multi-target cluster detection module; 5. Rotating arm; 6. Electrochemical probe; 7. Ultrasonic wave; 8. Optical lens; 9. 3D optical camera; 10. Bottom case; 11. Battery pack; 12. Calculation and processing unit; 13. Display control panel; 14. Guide rod; 15. Teeth; 16. Sliding sleeve; 17. Spring; 18. Positioning rod; 19. Blocking part; 20. Pressing part; 21. Mounting bracket; 22. Rotating shaft; 23. Treatment head; 24. Microwave electrode; 25. Heat dissipation holes; 26. Telescopic rod; 27. Double-fork arm lifting assembly; 28. Bottom plate; 29. Movable wheel. Detailed implementation manners

[0022] The present invention will be described in detail below with reference to the accompanying drawings and specific embodiments. At the same time, it should be noted here that in order to make the embodiments more detailed, the following embodiments are the best and preferred embodiments. For some well-known technologies, those skilled in the art can also adopt other alternative methods for implementation; moreover, the accompanying drawings are only for more specific description of the embodiments, and are not intended to specifically limit the present invention.

[0023] It should be noted that in the specification, references to "one embodiment", "an embodiment", "an exemplary embodiment", "some embodiments", etc. indicate that the described embodiments may include a particular feature, structure, or characteristic, but not every embodiment necessarily includes that particular feature, structure, or characteristic. Additionally, when a particular feature, structure, or characteristic is described in connection with an embodiment, implementing such feature, structure, or characteristic in connection with other embodiments (whether or not explicitly described) should be within the knowledge of those skilled in the relevant art.

[0024] Generally, terms can be understood, at least in part, from their use in context. For example, depending at least in part on the context, the term "one or more" as used herein can be used to describe any feature, structure, or characteristic in a singular sense, or can be used to describe a combination of features, structures, or characteristics in a plural sense. Additionally, the term "based on" can be understood to not necessarily be intended to convey a set of exclusive factors, but rather, alternatively, depending at least in part on the context, to allow for the existence of other factors that may not be explicitly described.

[0025] The present invention provides a tumor-specific multi-target cluster target diagnosis and treatment integrated detection device, aiming to achieve efficient detection and precise treatment of multi-target tumors. This device combines a variety of advanced diagnosis and treatment technologies, is structurally compact, has diverse functional modules, and is easy to operate, and is suitable for precise diagnosis and treatment of complex tumor targets in a clinical environment. Embodiment

[0026] Figure 1 and Figure 2 shows a schematic external three-dimensional structure diagram of the present invention. The device body includes a housing 1, a bottom shell 10, a base 2, and a display control panel 13 at the top. The housing 1 is in a streamlined elliptical cylinder structure, providing convenience for handheld or fixed operation. At the front end of the housing 1, telescopic support arms 3 are symmetrically provided, enabling the device to be adjusted in different orientations to meet the diagnosis and treatment requirements of different targets. The front end of the telescopic support arm 3 is hinged with a multi-target cluster detection module 4, ensuring that the detection module can achieve a wide range of multi-angle coverage. The display control panel 13 at the top of the housing has a touch screen and physical buttons for controlling various functions of the device and real-time displaying detection and imaging data.

[0027] Figure 3This is a schematic external top view structure of the present invention, which details the structural distribution of the housing 1, the telescopic arm 3, and the rotating arm 5. The multi-target cluster detection module 4 is installed at the end of the telescopic arm and is connected to the rotating arm 5. At the bottom of the front end of the rotating arm 5, there are multiple electrochemical probes 6, which are distributed in a fan shape to achieve multi-angle coverage detection, enabling comprehensive scanning and identification of multiple tumor targets. Each electrochemical probe 6 is made of medical titanium alloy and nanomaterials to ensure high durability and high precision during detection. Each probe is independently connected to the integrated data processing system, which can receive and analyze the biological signals fed back by the probe sensors in real time, so that medical staff can timely grasp the detection data of the multi-target area.

[0028] Figure 4 It shows a schematic imaging structure. At the front of the housing 1, there are an ultrasonic probe 7 and an optical lens 8 for high-resolution imaging. The ultrasonic probe 7 can penetrate tissues to achieve depth imaging, while the optical lens 8 helps to accurately locate tumor targets. At the bottom of the device, there is a 3D optical camera 9 for covering the surrounding area of the patient to achieve multi-angle imaging. This imaging system can generate real-time 3D images, combining the imaging data of the ultrasonic probe and the optical lens, and providing more comprehensive information about the tumor site through image fusion technology, providing a reliable targeting basis for subsequent treatment.

[0029] Figure 5 It shows the installation structure of the computing processing unit and the battery pack. Inside the bottom shell 10, the battery pack 11 and the computing processing unit 12 are integrated, providing the power and computing capabilities required for the long-term operation of the device. The computing processing unit 12 can receive, process, and analyze data from various sensors and imaging systems. This system real-time processes the data fed back by each electrochemical probe and the imaging system, and presents the detection information on the display control panel 13, so that medical staff can monitor and adjust the diagnosis and treatment plan at any time.

[0030] Figure 6 It shows a schematic diagram of the mounting bracket adjustment structure, showing the installation and adjustment method of the treatment head 23. A guide rod 14 is vertically arranged at the rear end of the device, and a sliding sleeve 16 is equipped on the guide rod. The end of the sliding sleeve is hinged with a positioning rod 18. The surface of the guide rod 14 is evenly distributed with teeth 15, and the sliding sleeve is fixed by abutting against the teeth through a blocking part 19, ensuring the stability of the device. This structure enables the treatment head 23 to be adjusted at different height positions to meet the treatment needs of different patients.

[0031] Figure 7 For Figure 4An enlarged schematic diagram of the electrochemical probe structure at location A in [device name], which details the structure of the electrochemical probe 6. Each probe is designed as an independently operating module with highly sensitive sensing capabilities and can provide real-time feedback signals through a data processing system. The use of medical titanium alloy and nanomaterials ensures the biocompatibility and durability of the probe, contributing to improved detection accuracy.

[0032] Figure 8 For Figure 6 An enlarged schematic diagram of the treatment head height adjustment structure at location B in [device name]. A spring 17 is provided between the sliding sleeve 16 and the positioning rod 18. After pressing the pressing part 20 of the positioning rod, the sliding sleeve can automatically reset to achieve precise adjustment of the height of the treatment head. This design keeps the treatment head stable during treatment and enables rapid adjustment to different height positions.

[0033] Figure 9 For Figure 6 An enlarged schematic diagram of the treatment head angle adjustment structure at location C in [device name]. The treatment head 23 can freely adjust its angle through the mounting bracket 21 and the rotating shaft 22 to ensure that the treatment head can be aligned with different targets. The rotating shaft 22 allows the treatment head 23 to flexibly adjust its angle in different directions and can be finely adjusted according to the tumor location to ensure the focusing accuracy of treatment. The surface of the treatment head is made of titanium alloy material, and the smooth surface reduces the impact on surrounding normal tissues. The built-in microwave electrode 24 can provide local thermal treatment to ensure efficient ablation of the tumor site. Example

[0034] Example 1: Multi-target cluster detection When using the device of the present invention for multi-target cluster detection, the electrochemical probe 6 is adjusted to a preset angle, and the multi-target cluster detection module 4 is activated. The probe 6 is distributed in a fan shape through the rotating arm 5 to collect bioelectrical signals from the tumor site at multiple angles. The data processing unit 12 analyzes the signals in real time and presents the detection data of the target area on the display control panel 13, helping medical staff visually confirm the positions of multiple targets and allowing adjustment of the angle and position of the detection module according to the real-time detection results to ensure full coverage of all targets.

[0035] Example 2: Real-time three-dimensional imaging and target positioning After the imaging module is activated, the ultrasonic probe 7 combines with the optical lens 8 for deep tissue and surface imaging to form a clear image of the tumor contour. The 3D optical camera 9 covers the imaging of the area around the patient, and different-angle images are synthesized through image fusion technology to provide a complete 3D model. Medical staff can accurately identify the size, shape, and depth of the tumor with the help of this real-time 3D imaging data, enhancing the accuracy of target positioning and providing comprehensive spatial information support for subsequent treatment operations.

[0036] Example 3: Targeted precision treatment After confirming the target position, adjust the position of the sliding sleeve 16 by pressing the positioning rod 18 to position the treatment head 23 above the target area. According to the depth and position of the tumor, adjust the angle and direction of the treatment head through the rotating shaft 22 to ensure that the microwave electrode 24 of the treatment head focuses on the target area. After activating the microwave electrode, perform local hyperthermia on the target area. The microwave electrode precisely releases treatment energy to quickly ablate the target cells, ensuring that the impact on normal tissues during the operation of the treatment head is minimized.

[0037] Example 4: Dynamic Real-time Feedback and Data Transmission The computing and processing unit 12 of this device will monitor the data of each probe, imaging system, and treatment module in real time and provide dynamic feedback through the display control panel 13. The wireless data transmission module in the device can upload the data to the remote medical platform in real time for experts to provide real-time guidance. This function is especially suitable for remote diagnosis and treatment scenarios. Through data transmission, medical staff can track the treatment progress at any time and optimize the treatment plan.

[0038] Example 5: Device Mobility and Portability The base 2 and the bottom plate 28 at the bottom of this device are equipped with moving wheels 29, and the height of the device is controlled by the double-fork arm lifting assembly 27 to facilitate movement on different terrains. The design of the base takes into account the diversity of the operating environment and is suitable for being fixed beside the operating table or placed at the head of the bed for use in different departments. The device is equipped with a handle for easy hand-held use, increasing portability and flexibility.

[0039] The above specific embodiments and examples have elaborated in detail the various structures and operation steps of the present invention. Through modular design, a perfect combination of multi-target detection and precise treatment is achieved. At the same time, it has portability and intelligent feedback functions, meeting the usage requirements in various medical scenarios.

[0040] The present invention covers any substitutions, modifications, equivalent methods, and solutions made within the essence and scope of the present invention. For the public to have a thorough understanding of the present invention, specific details are described in detail in the following preferred embodiments of the present invention. However, those skilled in the art can fully understand the present invention without these detailed descriptions. Additionally, to avoid unnecessary confusion to the essence of the present invention, well-known methods, processes, procedures, components, and circuits are not described in detail.

[0041] The above are only the preferred embodiments of the present invention. It should be noted that for those of ordinary skill in the art, without departing from the principle of the present invention, several improvements and refinements can still be made, and these improvements and refinements should also be regarded as within the protection scope of the present invention.

Claims

1. A tumor-specific multi-target cluster target diagnosis and treatment integrated detection device, comprising a housing (1), a display control panel (13), a multi-target cluster detection module (4), an imaging and target positioning system, an electrochemical probe (6), a treatment module, and a base (2), characterized in that: The shell (1) is an elliptical cylindrical structure, the front end of the shell (1) is symmetrically provided with a telescopic support arm (3), the front end of the telescopic support arm (3) is hinged with a same multi-target cluster detection module (4), the top of the multi-target cluster detection module (4) is provided with a rotating arm (5), the bottom of the front end of the rotating arm (5) is provided with a plurality of electrochemical probes (6), the electrochemical probes (6) are distributed in a fan shape, and the probe materials are medical titanium alloy and nanomaterials, ensuring high precision and high durability; Each electrochemical probe (6) is connected to an integrated data processing system via an independent sensor, and the data processing system is used to receive detection data from different electrochemical probes (6) in real time, ensuring that each probe can perform measurements at different angles to cover multiple target areas, thereby achieving multi-target accurate detection of tumors.

2. A tumor-specific multi-target cluster target diagnosis and treatment integrated detection device according to claim 1, characterized in that: An ultrasonic probe (7) is provided at the front of the shell (1), an optical lens (8) is provided at the front end of the ultrasonic probe (7), and the optical lens (8) is used to achieve high-resolution imaging. A 3D optical camera (9) is provided at the bottom of the shell (1) and is used to cover the imaging of the area surrounding the patient. The 3D optical camera (9) cooperates with the ultrasonic probe (7) to ensure the accuracy of multi-angle imaging.

3. A tumor-specific multi-target cluster target diagnosis and treatment integrated detection device according to claim 1 or 2, characterized in that: The housing (1) contains a battery pack (11) and a computing processing unit (12). The battery pack (11) provides power, and the computing processing unit (12) is used to receive, analyze and process data from various sensors, and to display detection results in real time on a display control panel (13).

4. A tumor-specific multi-target cluster target diagnosis and treatment integrated detection device according to claim 3, characterized in that: The display control panel (13) is located on the top of the housing (1). The display control panel (13) comprises a touch screen and a plurality of physical buttons for directly controlling the multi-target cluster detection module (4). The display screen can display real-time imaging data, a positioning image of the probe, a mark of the treatment area, and treatment dose parameters.

5. The tumor-specific multi-target cluster target diagnosis and treatment integrated detection device according to claim 1, characterized in that: A guide rod (14) is vertically provided at the rear end of the housing (1); a sliding sleeve (16) is provided on the guide rod (14); a positioning rod (18) is hingedly connected to the end of the sliding sleeve (16); a blocking portion (19) is provided at the top of the positioning rod (18); a plurality of teeth (15) are vertically arranged at equal distances on the surface of the guide rod (14); the blocking portion (19) abuts against the teeth (15) to fix the position of the sliding sleeve (16).

6. The tumor-specific multi-target cluster target diagnosis and treatment integrated detection device according to claim 5, characterized in that: A pressing portion (20) is provided at the bottom end of the positioning rod (18), and a spring (17) for controlling the automatic rebound of the positioning rod (18) is provided between the sliding sleeve (16) and the pressing portion (20), so that the positioning rod (18) automatically returns to its original position when released after being pressed.

7. The tumor-specific multi-target cluster target diagnosis and treatment integrated detection device according to claim 1, characterized in that: The bottom shell (10) is used in conjunction with the base (2); the bottom shell (10) serves as a supporting structure for the device, comprises a battery pack (11) and a computing processing unit (12), and provides overall power support and data processing functions; a double-fork arm lifting assembly (27) is provided inside the base (2); the double-fork arm lifting assembly (27) controls the lifting and lowering of the base (2) to adjust the height of the device; and moving wheels (29) are provided at the bottom of the base plate (28) to facilitate the movement and positioning of the device.

8. The tumor-specific multi-target cluster target diagnosis and treatment integrated detection device according to claim 1, characterized in that: The treatment head (23) is of adjustable design and comprises a mounting frame (21) and a rotating shaft (22). The treatment head (23) can adjust the angle and distance around the rotating shaft (22) to adapt to different target positions. The surface of the treatment head (23) is made of a smooth titanium alloy material and is provided with a microwave electrode (24) inside for performing thermal treatment on target tissue.

9. The tumor-specific multi-target cluster target diagnosis and treatment integrated detection device according to claim 8, characterized in that: The lower parts of both sides of the housing (1) are provided with heat dissipation holes (25) for dissipating heat, so as to prevent the temperature of the device from being too high during long-term operation and to extend the service life of the device.

10. The tumor-specific multi-target cluster target diagnosis and treatment integrated detection device according to claim 1, characterized in that: Telescopic rods (26) are provided at the four corners of the bottom of the base (2). The bottoms of the telescopic rods (26) are connected to the same base plate (28). The base plate (28) is used to provide stability for the device and can control the height adjustment of the base (2) through a double fork arm lifting assembly (27) to adapt to different testing environments and patient posture requirements.

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