An intelligent whole-body hyperthermia optical spectrum therapy system

Abstract

The application discloses a kind of intelligent whole-body heat treatment spectrum therapy systems, comprising: treatment cabin body, the middle part of the treatment cabin body is set as the spectrum therapy cavity for human body to enter;With the treatment bed of the spectrum therapy cavity cooperation;Spectrum irradiation device is set in the spectrum therapy cavity;With human body connection cooperation human body parameter monitoring device;With infrared thermal imaging scanning device for human body thermal imaging scanning;Temperature detection device is set in the treatment cabin body;Power module is powered for each device;With the control device of the spectrum irradiation device, human body parameter monitoring module, infrared thermal imaging scanning device, temperature detection device connection;The control device is according to the data parameter that human body parameter monitoring device, infrared thermal imaging scanning device, temperature detection device feedback, adjusts the irradiation intensity of the spectrum irradiation device.The application can irradiate the whole body of human body and the treatment process is realized intelligent control by control device.

Description

Technical Field

[0001] This invention relates to the field of phototherapy, and in particular to an intelligent whole-body hyperthermia spectral therapy system. Background Technology

[0002] Phototherapy is a non-invasive / minimally invasive treatment technique that uses light radiation energy of specific wavelengths / bands to act on the skin, mucous membranes, and deep tissues of the human body. Through photochemical, photophysical, and photobiological regulatory effects, it achieves disease treatment, symptom relief, and tissue repair. With its advantages of no drug side effects and ease of operation, it has become one of the core technologies in rehabilitation medicine, dermatology, pain management, aesthetic medicine, and neurology. Its core principle is the specific interaction between light and biological tissues, making it suitable for various acute and chronic conditions.

[0003] While whole-body hyperthermia products have been on the market for many years and have achieved industry consensus, numerous technical and implementation challenges remain in clinical application. Existing whole-body hyperthermia equipment lacks sufficient coverage. The core requirement of whole-body hyperthermia is simultaneous irradiation of the entire body to allow energy to penetrate deep into the body. However, existing equipment often irradiates from top to bottom, resulting in uneven irradiation and an inability to adjust irradiation conditions in real time according to actual conditions. Excessive localized irradiation and energy accumulation can cause irreversible damage, while uncontrollable overheating can endanger the patient's life. Uneven heating can also lead to "immune escape," potentially triggering tumor cell metastasis. Summary of the Invention

[0004] The purpose of this invention is to address the aforementioned shortcomings and defects of the prior art by providing an intelligent whole-body hyperthermia spectral therapy system to solve the above-mentioned problems.

[0005] The technical problem solved by this invention can be achieved by the following technical solutions: A smart whole-body hyperthermia spectral therapy system, comprising: The treatment chamber body has a central section configured as a spectral therapy cavity for the human body to enter. A treatment bed that works in conjunction with the spectral therapy cavity; A spectral irradiation device installed inside the spectral therapy cavity; Human body parameter monitoring devices used to connect and cooperate with the human body; Infrared thermal imaging scanning device used for human body thermal imaging scanning; Temperature detection device installed inside the treatment chamber; Power supply modules that supply power to various devices; A control device connected to the spectral irradiation device, the human body parameter monitoring module, the infrared thermal imaging scanning device, and the temperature detection device; The control device adjusts the irradiation intensity of the spectral irradiation device based on data parameters fed back from the human body parameter monitoring device, the infrared thermal imaging scanning device, and the temperature detection device.

[0006] In a preferred embodiment of the present invention, it further includes: a distance adjustment device connected to the spectral irradiation device and a distance detection device disposed on the spectral irradiation device. The distance adjustment device and the distance detection device are connected to the control device. The control device adjusts the irradiation intensity of the spectral irradiation device and controls the distance adjustment device to change the irradiation distance between the spectral irradiation device and the human body based on data parameters fed back by the human body parameter monitoring device, the infrared thermal imaging scanning device, the temperature detection device, and the distance detection device.

[0007] In a preferred embodiment of the present invention, the control device includes a microcomputer with an integrated artificial intelligence chip, the microcomputer having functions of data acquisition, neurophysiological electrode analysis, vital sign monitoring and analysis, human thermal imaging image reconstruction, artificial intelligence temperature control, intelligent equipment management, and data storage and traceability.

[0008] In a preferred embodiment of the present invention, the human body parameter monitoring device includes: The neurophysiological electrode unit, which is a non-invasive surface electrode connected to the skin of the human body, is attached to the body surface of the patient using conductive paste. During treatment, after entering the spectral therapy cavity, the neurophysiological electrode unit is attached to the scalp to acquire central pain evoked potentials, reflecting the brain's reception and processing of pain signals, and demonstrating the central conduction and cortical response of pain. The neurophysiological electrode unit is attached to the trunk to acquire peripheral pain conduction signals, reflecting the speed and integrity of pain conduction from peripheral nerves to the spinal cord, determining whether peripheral nerve pain conduction is damaged, converting the signals into electrical signals for transmission, amplification and filtering to form analyzable electrophysiological waveforms, and then transmitting them through wires to the control device for amplification and recording. The control device then analyzes and fuses the data for management. A vital signs monitoring unit connected to the skin of the human body includes several monitoring sensors. These sensors are non-invasively attached to the body surface of the patient entering the treatment chamber to collect physiological signals, acquiring core physiological indicators such as heart rate, heart rhythm, blood oxygen saturation, blood pressure, body temperature, and respiratory rate. The signals are processed, analyzed, and converted into numerical values ​​using built-in algorithms, and the indicator data is displayed in real time and transmitted to the control device for analysis. Auxiliary indicators such as electrocardiogram waveform, perfusion index, and pulse rate are added as needed. Simultaneously, abnormal indicators are detected by sound and light based on preset thresholds, and the trend of indicator changes is recorded, providing objective data support for clinical diagnosis and health monitoring.

[0009] In a preferred embodiment of the present invention, the infrared thermal imaging scanning device is disposed inside the spectral therapy cavity facing the front and back of the human body to capture the infrared radiation emitted by the human body surface. The process involves converting the raw data of human body surface thermal radiation collected by the infrared thermal imaging scanning device into a visual thermal imaging image that can be intuitively interpreted and accurately reflects the temperature distribution and thermal metabolism characteristics of the human body surface through a series of technical means such as signal processing, algorithm optimization, spatial mapping, and image enhancement. The core of this process is to restore the spatial distribution pattern of human body thermal radiation, correct distortions in equipment acquisition and transmission, and improve the temperature resolution, spatial resolution, and clinical / application interpretation value of the image. The entire process is non-contact. The obtained data is transmitted to the control device in real time. The control device performs thermal imaging image reconstruction and irradiates important areas according to the pre-planned treatment plan, while monitoring the temperature uniformity during the irradiation process.

[0010] In a preferred embodiment of the present invention, the distance detection device includes an ultrasonic ranging sensor for detecting the distance from the spectral irradiation device to the human body part and feeding back the information to the control device.

[0011] In a preferred embodiment of the present invention, the temperature detection device includes a first temperature detection device, a second temperature detection device, and a third temperature detection device; the first temperature detection device includes a first thermometer disposed in the spectral irradiation device, which measures the temperature of the irradiated area perpendicular to the surface of the irradiated human body; the second temperature detection device includes a second thermometer attached to the armpit of the human body; and the third temperature detection device includes a third thermometer inserted into the mouth or rectum of the human body for real-time temperature measurement.

[0012] In a preferred embodiment of the present invention, a temperature regulating device connected to the control device is provided inside the spectral therapy cavity.

[0013] In a preferred embodiment of the present invention, the temperature regulating device includes a semiconductor temperature regulating component.

[0014] In a preferred embodiment of the present invention, the spectral irradiation device includes a plurality of upper irradiation units disposed on the inner wall of the top of the spectral therapy cavity and a plurality of lower irradiation units disposed on the inner wall of the bottom of the spectral therapy cavity.

[0015] In a preferred embodiment of the present invention, the distance adjustment device includes a plurality of linear motors disposed on the inner wall of the spectral therapy cavity and connected to the control device. Each linear motor is connected to an irradiation unit in the spectral irradiation device to drive the irradiation unit away from or closer to the human body.

[0016] Thanks to the above-mentioned technical solution, this invention enables whole-body irradiation therapy, achieving true "whole-body hyperthermia." Furthermore, the treatment process is intelligently controlled via a control device, allowing for real-time adjustments to the irradiation conditions based on actual conditions. In addition, this invention achieves intelligent control of the entire hyperthermia process and intelligent management of the entire hyperthermia equipment process. Through AI calculations, the planned dosage is calculated in conjunction with the real-time physiological characteristics of the recipient, allowing for dosage adjustments during treatment, issuing warnings for abnormal high temperatures, or directly intervening to stop treatment. By intelligently calculating the required dosage for the appropriate site and the cumulative irradiation energy throughout the body, it ensures that the patient receives high-saturation treatment safely, thereby inhibiting immune escape and reducing tumor cell metastasis. Attached Figure Description

[0017] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0018] Figure 1 This is a schematic diagram of the structure of one embodiment of the present invention.

[0019] Figure 2 yes Figure 1 The front view.

[0020] Figure 3 yes Figure 1 Side view.

[0021] Figure 4 yes Figure 1 A bottom view.

[0022] Figure 5 yes Figure 2 A longitudinal sectional view.

[0023] Figure 6 yes Figure 2 A cross-sectional view.

[0024] Figure 7 yes Figure 3 A longitudinal sectional view.

[0025] Figure 8 This is a schematic diagram of the framework of one embodiment of the present invention.

[0026] Reference numerals: Human body 1; Front view 1a; Back view 1b; Treatment bed 10; Emergency button 11; Treatment chamber body 100; Spectral therapy cavity 110; Inlet 110a; Closed end 110b; Slide rail 111; Position calibration point 112; Support platform 120; Spectral irradiation device 200; Upper irradiation unit 210; Lower irradiation unit 220; Human body parameter monitoring device 300; Neurophysiological electrode unit 310; Vital characteristic monitoring unit 320; Infrared thermal imaging scanning device 400; Distance adjustment device 500; Linear motor 510; Temperature detection device 600; First thermometer 610; Second thermometer 620; Third thermometer 630; Distance detection device 700; Control device 800; Operation panel 810; Power module 900; Temperature adjustment device 1000. Detailed Implementation

[0027] Preferred embodiments of the invention will now be described in more detail with reference to the accompanying drawings. While preferred embodiments of the invention are shown in the drawings, it should be understood that the invention can be implemented in various forms and should not be limited to the embodiments set forth herein. Rather, these embodiments are provided so that the invention will be thorough and complete, and will fully convey the scope of the invention to those skilled in the art.

[0028] The terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention. The singular forms “a,” “the,” and “the” used in this invention and the appended claims are also intended to include the plural forms unless the context clearly indicates otherwise. It should also be understood that the term “and / or” as used herein refers to and includes any or all possible combinations of one or more of the associated listed items.

[0029] It should be understood that although the terms "first," "second," "third," etc., may be used in this invention to describe various information, this information should not be limited to these terms. These terms are only used to distinguish information of the same type from one another. For example, without departing from the scope of this invention, first information may also be referred to as second information, and similarly, second information may also be referred to as first information. Thus, features defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this invention, "a plurality of" means two or more, unless otherwise explicitly specified.

[0030] See Figures 1 to 8 The intelligent whole-body hyperthermia spectral therapy system shown includes a treatment bed 10, a treatment chamber body 100, a spectral irradiation device 200, a human body parameter monitoring device 300, an infrared thermal imaging scanning device 400, a distance adjustment device 500, a temperature detection device 600, a distance detection device 700, a control device 800, and a power module 900.

[0031] The treatment chamber body 100 has a centrally located spectral therapy cavity 110 for the human body to enter. The spectral therapy cavity 110 is a cylindrical cavity, and several position calibration points 112 are provided at its bottom. A treatment bed 10 cooperates with the spectral therapy cavity 110. In this embodiment, the treatment bed 10 is slidably disposed within and can extend out of the spectral therapy cavity 110. The treatment bed 10 is a transparent structure, allowing light to pass through without affecting the treatment. Alternatively, the treatment bed 10 can be configured with a perforated structure for the light to pass through. To achieve automated operation, in this embodiment, the treatment bed 10 is moved by a linear motion drive mechanism. Preferably, slide rails 111 are provided on the inner walls of both sides of the spectral therapy cavity 110, and sliders cooperating with the slide rails 111 are provided on both sides of the treatment bed 10. The linear motion drive mechanism includes a linear motor connected to the treatment bed 10. Specifically, one end of the spectral therapy cavity 110 is an inlet 110a, and the other end is a closed end 110b. A support platform 120 is provided on one side of the inlet 110a, and a linear motor is provided on the support platform 120. The output end of the linear motor is connected to the end of the treatment bed 10 near the inlet 110a, so that the treatment bed 10 can reciprocate in and out of the spectral therapy cavity 110 under the drive of the linear motor.

[0032] A spectral irradiation device 200 is disposed within a spectral therapy cavity 110. The spectral irradiation device 200 includes several upper irradiation units 210 disposed on the top inner wall of the spectral therapy cavity 110 and several lower irradiation units 220 disposed on the bottom inner wall of the spectral therapy cavity 110. The upper irradiation units 210 irradiate downwards to irradiate the front 1a of the human body 1, and the lower irradiation units 220 irradiate upwards to irradiate the back 1b of the human body 1. In this embodiment, the upper irradiation units 210 and lower irradiation units 220 include semiconductor solid-state light sources. The semiconductor solid-state light source includes a COB light-emitting plate integrated with LED material. The COB light-emitting plate is provided with a circularly distributed array of LED beads, which are composed of infrared light-emitting components. A focusing component can be disposed at the front end of the semiconductor solid-state light source; the focusing component can be a reflector and an optical glass lens. The upper irradiation units 210 are arranged in an array on the top inner wall of the spectral therapy cavity 110, and the lower irradiation units 220 are arranged in an array on the bottom inner wall of the spectral therapy cavity 110.

[0033] The distance adjustment device 500 is connected to the spectral irradiation device 200 to adjust the irradiation distance between the spectral irradiation device 200 and the human body. In this embodiment, the distance adjustment device 500 includes several linear motors 510 disposed on the inner wall of the spectral therapy cavity 110 and connected to the control device 800. Each linear motor 510 is connected to an irradiation unit in the spectral irradiation device to drive the irradiation unit away from or closer to the human body. Specifically, each semiconductor solid-state light source of the upper irradiation unit 210 is connected to the output end of a linear motor 210, and the bottom of this part of the linear motor 210 is fixed to the top inner wall of the spectral therapy cavity 110; each semiconductor solid-state light source of the upper irradiation unit 220 is connected to the output end of a linear motor 210, and the bottom of this part of the linear motor 210 is fixed to the bottom inner wall of the spectral therapy cavity 110. In order to enable the spectral irradiation device 200 to move in a horizontal position, the linear motor can be connected to the output end of the X-axis motor set along the X-axis direction, and the bottom of the X-axis motor can be connected to the output end of the Y-axis motor set along the Y-axis direction. The bottom of the Y-axis motor is fixed to the inner wall of the spectral therapy cavity 110, thereby realizing the XYZ multi-directional adjustment of the spectral irradiation device 200.

[0034] The human body parameter monitoring device 300 is used to connect and cooperate with the human body 1. In this embodiment, the human body parameter monitoring device 300 includes a neurophysiological electrode unit 310 connected to the skin of the human body and a vital signs monitoring unit 320 connected to the skin of the human body.

[0035] The neurophysiological electrode unit 310 is a non-invasive surface electrode that is attached to the body surface of the patient using conductive paste. During treatment after entering the spectral therapy cavity 110, the neurophysiological electrode unit 310 is attached to the scalp to acquire central pain evoked potentials, reflecting the brain's reception and processing of pain signals, and demonstrating the central conduction and cortical response of pain. The neurophysiological electrode unit 310 is attached to the trunk to acquire peripheral pain conduction signals, reflecting the speed and integrity of pain conduction from peripheral nerves to the spinal cord, determining whether peripheral nerve pain conduction is damaged, converting it into an electrical signal for transmission, amplification and filtering to form an analyzable electrophysiological waveform, and then transmitting it through wires to the control device 800 for amplification and recording, where the control device 800 analyzes and fuses the data for management.

[0036] The vital signs monitoring unit 320 includes several monitoring sensors that are non-invasively attached to the body surface of the patient entering the treatment chamber. These sensors collect physiological signals, acquiring core physiological indicators such as heart rate, heart rhythm, blood oxygen saturation, blood pressure, body temperature, and respiratory rate. The built-in algorithm processes, analyzes, and converts the signals into numerical values, displays the indicator data in real time, and transmits it to the control device 800 for analysis. As needed, auxiliary indicators such as electrocardiogram waveform, perfusion index, and pulse rate are added. Simultaneously, based on preset thresholds, the unit provides audible and visual warnings for abnormal indicators and records the trend of indicator changes, providing objective data support for clinical diagnosis and health monitoring.

[0037] The infrared thermal imaging scanning device 400 is used for human thermal imaging scanning. In this embodiment, the infrared thermal imaging scanning device 400 is set inside the spectral treatment cavity 110, facing the front and back of the human body, to capture the infrared radiation emitted by the human body surface. The process transforms the raw data of human body surface thermal radiation collected by the infrared thermal imaging scanning device 400 into a visual thermal imaging image that can be intuitively interpreted and accurately reflects the temperature distribution and thermal metabolism characteristics of the human body surface through a series of technical means such as signal processing, algorithm optimization, spatial mapping, and image enhancement. The core of this process is to restore the spatial distribution pattern of human body thermal radiation, correct distortions in equipment acquisition and transmission, and improve the temperature resolution, spatial resolution, and clinical / application interpretation value of the image. The entire process is non-contact. The obtained data is transmitted to the control device 800 in real time. The control device 800 reconstructs the thermal imaging image and irradiates important areas according to the pre-planned treatment plan, while simultaneously monitoring the temperature uniformity during the irradiation process. The infrared thermal imaging scanning device 400 is a conventional infrared thermal imaging scanner.

[0038] A temperature detection device 600 is installed inside the treatment chamber body 100. The temperature detection device 600 includes a first temperature detection device, a second temperature detection device, and a third temperature detection device. The first temperature detection device includes a first thermometer 610 installed in the spectral irradiation device 200, which measures the temperature of the irradiated area perpendicular to the surface of the irradiated human body. The second temperature detection device includes a second thermometer 620 attached to the armpit of the human body. The third temperature detection device includes a third thermometer 630 inserted into the mouth or rectum for real-time temperature measurement. The temperature rise and fall data are collected in real time from the inside and outside of the human body through these three temperature measurement methods. The data is fed back to the control device 800, which performs calculations and real-time evaluations to adjust the output energy value of the irradiator, keeping it within a safe and effective range.

[0039] The distance detection device 700 is installed on the spectral irradiation device 200. Preferably, the distance detection device includes an ultrasonic ranging sensor for detecting the distance between the spectral irradiation device 200 and the human body part, and feeding back the information to the control device 800. The control device 800 performs calculations and monitors the position changes of the human body to maintain a steady dose output.

[0040] The power module 900 supplies power to the aforementioned devices. In this embodiment, the power module 900 is located at the bottom of the treatment chamber body 100. Preferably, the power module 900 has two control architectures: one is a distributed control architecture, where AC power is connected through the main input port and then distributed to each irradiator unit, with each circuit independently configured with a switching power supply module, allowing precise control of the power supply and operating mode of the corresponding light source. The other is a fully integrated full-power control architecture, where the module has a built-in regulating chip that rectifies the input AC power into DC power and uses pulse width modulation technology to achieve centralized control of the power supply and operating status of each irradiator unit. Both types of switching power supply modules can be controlled by the control device 800, coordinating with the detection data from the human body parameter monitoring device 300, distance detection device 700, and temperature detection device 600 to achieve intelligent and coordinated control of the power supply to each irradiator, ensuring precise matching between the irradiator's operating status and the system's temperature control requirements.

[0041] The control device 800 is connected to the spectral irradiation device 200, the human body parameter monitoring module 300, the infrared thermal imaging scanning device 400, the distance adjustment device 500, the temperature detection device 600, and the distance detection device 700. Based on the data parameters fed back from the human body parameter monitoring device 300, the infrared thermal imaging scanning device 400, the temperature detection device 600, and the distance detection device 700, the control device 800 adjusts the irradiation intensity of the spectral irradiation device 200 and controls the distance adjustment device 500 to change the irradiation distance between the spectral irradiation device 200 and the human body. In this embodiment, the control device 800 includes a microcomputer with an integrated artificial intelligence chip. The microcomputer has functions such as data acquisition, neurophysiological electrode analysis, vital sign monitoring and analysis, human body thermal imaging image reconstruction, artificial intelligence temperature control, intelligent equipment management, and data storage and traceability. Specifically, the artificial intelligence chip has multiple functional sub-AI modules, including a temperature measurement and control AI sub-module, an equipment early warning AI sub-module, and an image positioning AI sub-module. The modules can be deployed independently externally, integrated at the edge, in a cloud-edge collaborative manner, embedded, or distributed in multiple modules. Multiple functional sub-AI modules are distributed and deployed in different functional units of the treatment chamber body 100. They are linked together through a high-speed synchronous communication interface. Each sub-module has independent computing power / acquisition / control, while the main module realizes data fusion and unified AI decision-making, adapting to the coordinated operation of multiple channels, multiple targets, and multiple modules. The microcomputer software establishes data interaction with the hardware detection and execution units of the hyperthermia equipment through a standardized communication interface. Based on artificial intelligence algorithms, it performs real-time analysis and processing of the whole-body temperature, the temperature of the hyperthermia target area, and the equipment operating parameters, outputting irradiance, irradiation range, and distance adjustment control commands and equipment status management commands. At the same time, it standardizes the storage and traceability management of hyperthermia treatment parameters and diagnostic data. After loading and analyzing the patient's pre-diagnosis data, it designs treatment plans, conducts treatment, and monitors the process. It can interact with external medical equipment to achieve intelligent control of the hyperthermia process and intelligent management of the entire hyperthermia equipment process. Through AI calculation, it calculates the planned dose during the execution process, combined with the real-time physiological characteristics of the patient, and can adjust the dose during treatment, collect warnings for abnormal high temperatures, or directly intervene to stop treatment.

[0042] In this embodiment, a temperature regulating device 1000 connected to the control device 800 is provided inside the spectral therapy cavity 110. The temperature regulating device 1000 includes a semiconductor temperature regulating component. Preferably, the semiconductor temperature regulating component includes a cooling semiconductor and a heating semiconductor. The semiconductor temperature regulating component includes a structural assembly and a temperature control circuit. This component is installed inside the treatment chamber body 100 and achieves high and low temperature output through the guide holes in the inner wall of the chamber. The core of its structural assembly is multiple sets of alternating thermoelectric core units. Two ceramic substrates are provided on the upper and lower sides of the unit to achieve insulation, heat conduction and structural support functions. Metal guide plates connect each thermoelectric arm to form a closed loop and are matched with an external power supply circuit for electrode leads. The temperature control circuit includes a DC power supply module, a temperature control module and a temperature sensor module. The DC power supply module is electrically connected to the electrode leads, and the temperature control module is electrically connected to the DC power supply module and the temperature sensor module respectively. The working principle of the temperature regulation device 1000 is based on the Peltier effect: the DC power module inputs current to the thermoelectric core unit, and the current flows through the metal guide plate and the junction of the thermoelectric arm to complete the energy transfer, so that the thermoelectric core unit forms a temperature difference effect with a cooling end on one side and a heating end on the other side; the temperature control module adjusts the magnitude of the input current according to the temperature signal of the cabin collected by the temperature sensor module to achieve precise temperature control, and completes the switching of the hot and cold mode by switching the current direction, ultimately achieving a constant target temperature inside the treatment cabin body 100.

[0043] The treatment bed 10 is equipped with an emergency button 11 on one side. The emergency button 11 is connected to the control device 800. In special circumstances, a patient with self-awareness can press the button to pause or stop the treatment.

[0044] For ease of operation, the outer wall of the treatment chamber body 100 is provided with an operation screen 810 that is connected to the control device 800.

[0045] The working principle of this invention is as follows: In use, the patient (1) lies flat on the treatment bed 10 with their face upward. A linear motor then drives the treatment bed 10 into the spectral therapy chamber 110. Once the treatment bed 10 is in position, the patient's preliminary diagnostic data is loaded and analyzed. The control device 800 designs and monitors the treatment plan based on a pre-set protocol, and controls the spectral irradiation device 300 to begin operation, irradiating the upper and lower parts of the lying patient (1) to achieve whole-body treatment. During treatment, the control device 800 dynamically adjusts the irradiation intensity of the spectral irradiation device 200 and controls the distance adjustment device 500 to dynamically change the irradiation distance between the spectral irradiation device 200 and the patient based on data parameters fed back from the human body parameter monitoring device 300, infrared thermal imaging scanning device 400, temperature detection device 600, and distance detection device 700, thereby improving the treatment effect. When the time set by the timing module is reached, the control device controls the spectral irradiation device 200 to shut down, and the linear motor drives the treatment bed 10 out of the spectral therapy chamber 110, completing the irradiation treatment. The entire process of hyperthermia treatment is intelligently controlled and the hyperthermia equipment is intelligently managed. Through AI calculation, the planned dosage is calculated in combination with the real-time physiological characteristics of the patient during the treatment process. The dosage can be adjusted during the treatment, and abnormal high temperature can be detected and warned or the treatment can be stopped directly.

[0046] Unless otherwise specifically stated, the relative arrangement, numerical expressions, and values ​​of the components and steps described in these embodiments do not limit the scope of this application. It should also be understood that, for ease of description, the dimensions of the various parts shown in the drawings are not drawn to actual scale. Techniques, methods, and devices known to those skilled in the art may not be discussed in detail, but where appropriate, such techniques, methods, and devices should be considered part of the specification. In all examples shown and discussed herein, any specific values ​​should be interpreted as merely exemplary and not as limitations. Therefore, other examples of exemplary embodiments may have different values. It should be noted that similar reference numerals and letters in the following drawings denote similar items; therefore, once an item is defined in one drawing, it need not be further discussed in subsequent drawings.

[0047] In the description of this application, it should be understood that the orientation or positional relationship indicated by directional terms such as "front, back, up, down, left, right", "horizontal, vertical, horizontal" and "top, bottom" is usually based on the orientation or positional relationship shown in the accompanying drawings, and is only for the convenience of describing this application and simplifying the description. Unless otherwise stated, these directional terms do not indicate or imply that the device or element referred to must have a specific orientation or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation on the scope of protection of this application; the directional terms "inner" and "outer" refer to the inner and outer contours relative to the outline of each component itself.

[0048] For ease of description, spatial relative terms such as "above," "on top of," "on the upper surface of," "above," etc., are used herein to describe the spatial positional relationship of a device or feature as shown in the figures to other devices or features. It should be understood that spatial relative terms are intended to encompass different orientations in use or operation beyond the orientation of the device as described in the figures. For example, if the device in the figures were inverted, a device described as "above" or "on top of" other devices or structures would subsequently be positioned as "below" or "under" other devices or structures. Thus, the exemplary term "above" can include both "above" and "below." The device may also be positioned in other different ways (rotated 90 degrees or in other orientations), and the spatial relative descriptions used herein will be interpreted accordingly.

[0049] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of this invention is defined by the appended claims and their equivalents.

Claims

1. An intelligent whole-body hyperthermia spectral therapy system, characterized in that, include: The treatment chamber body has a central section configured as a spectral therapy cavity for the human body to enter. A treatment bed that works in conjunction with the spectral therapy cavity; A spectral irradiation device installed inside the spectral therapy cavity; Human body parameter monitoring devices used to connect and cooperate with the human body; Infrared thermal imaging scanning device used for human body thermal imaging scanning; Temperature detection device installed inside the treatment chamber; Power supply modules that supply power to various devices; A control device connected to the spectral irradiation device, the human body parameter monitoring module, the infrared thermal imaging scanning device, and the temperature detection device; The control device adjusts the irradiation intensity of the spectral irradiation device based on data parameters fed back from the human body parameter monitoring device, the infrared thermal imaging scanning device, and the temperature detection device.

2. The intelligent whole-body hyperthermia spectral therapy system according to claim 1, characterized in that, Also includes: The distance adjustment device and the distance detection device are connected to the spectral irradiation device. The distance adjustment device and the distance detection device are connected to the control device. The control device adjusts the irradiation intensity of the spectral irradiation device and controls the distance adjustment device to change the irradiation distance between the spectral irradiation device and the human body based on the data parameters fed back by the human body parameter monitoring device, the infrared thermal imaging scanning device, the temperature detection device and the distance detection device.

3. The intelligent whole-body hyperthermia spectral therapy system according to claim 2, characterized in that, The control device includes a microcomputer with an integrated artificial intelligence chip. The microcomputer has functions such as data acquisition, neurophysiological electrode analysis, vital sign monitoring and analysis, human thermal imaging image reconstruction, artificial intelligence temperature control, intelligent equipment management, and data storage and traceability.

4. The intelligent whole-body hyperthermia spectral therapy system according to claim 3, characterized in that, The human body parameter monitoring device includes: The neurophysiological electrode unit, which is a non-invasive surface electrode connected to the skin of the human body, is attached to the body surface of the patient using conductive paste. During treatment, after entering the spectral therapy cavity, the neurophysiological electrode unit is attached to the scalp to acquire central pain evoked potentials, reflecting the brain's reception and processing of pain signals, and demonstrating the central conduction and cortical response of pain. The neurophysiological electrode unit is attached to the trunk to acquire peripheral pain conduction signals, reflecting the speed and integrity of pain conduction from peripheral nerves to the spinal cord, determining whether peripheral nerve pain conduction is damaged, converting the signals into electrical signals for transmission, amplification and filtering to form analyzable electrophysiological waveforms, and then transmitting them through wires to the control device for amplification and recording. The control device then analyzes and fuses the data for management. A vital signs monitoring unit connected to the skin of the human body includes several monitoring sensors. These sensors are non-invasively attached to the body surface of the patient entering the treatment chamber to collect physiological signals, acquiring core physiological indicators such as heart rate, heart rhythm, blood oxygen saturation, blood pressure, body temperature, and respiratory rate. The signals are processed, analyzed, and converted into numerical values ​​using built-in algorithms, and the indicator data is displayed in real time and transmitted to the control device for analysis. Auxiliary indicators such as electrocardiogram waveform, perfusion index, and pulse rate are added as needed. Simultaneously, abnormal indicators are detected by sound and light based on preset thresholds, and the trend of indicator changes is recorded, providing objective data support for clinical diagnosis and health monitoring.

5. The intelligent whole-body hyperthermia spectral therapy system according to claim 3, characterized in that, The infrared thermal imaging scanning device is installed inside the spectral therapy cavity, facing the front and back of the human body. It is used to capture the infrared radiation emitted by the human body surface. The raw data of human body surface thermal radiation collected by the infrared thermal imaging scanning device is transformed into a visualized thermal imaging image that can be intuitively interpreted and accurately reflects the temperature distribution and thermal metabolism characteristics of the human body surface through a series of technical means such as signal processing, algorithm optimization, spatial mapping, and image enhancement. The core of this process is to restore the spatial distribution pattern of human body thermal radiation, correct the distortion in equipment acquisition and transmission, and improve the temperature resolution, spatial resolution, and clinical / application interpretation value of the image. The entire process is non-contact. The obtained data is transmitted to the control device in real time. The control device reconstructs the thermal imaging image and irradiates the important parts according to the pre-planned treatment plan, while monitoring the temperature uniformity during the irradiation process.

6. The intelligent whole-body hyperthermia spectral therapy system according to claim 3, characterized in that, The temperature detection device includes a first temperature detection device, a second temperature detection device, and a third temperature detection device; the first temperature detection device includes a first thermometer installed in the spectral irradiation device, which measures the temperature of the irradiated area perpendicular to the surface of the irradiated human body; the second temperature detection device includes a second thermometer attached to the armpit of the human body; the third temperature detection device includes a third thermometer inserted into the mouth or rectum of the human body for real-time temperature measurement.

7. The intelligent whole-body hyperthermia spectral therapy system according to claim 3, characterized in that, The spectral therapy cavity is equipped with a temperature regulating device connected to the control device.

8. The intelligent whole-body hyperthermia spectral therapy system according to claim 7, characterized in that, The temperature regulating device includes a semiconductor temperature regulating component.

9. The intelligent whole-body hyperthermia spectral therapy system according to claim 1, characterized in that, The spectral irradiation device includes several upper irradiation units disposed on the inner wall of the top of the spectral therapy cavity and several lower irradiation units disposed on the inner wall of the bottom of the spectral therapy cavity.

10. The intelligent whole-body hyperthermia spectral therapy system according to claim 3, characterized in that, The distance adjustment device includes a plurality of linear motors disposed on the inner wall of the spectral therapy cavity and connected to the control device. Each linear motor is connected to an irradiation unit in the spectral irradiation device to drive the irradiation unit away from or closer to the human body.

Images