Wave light control system for terahertz physiotherapy and control method thereof

Abstract

The invention relates to the technical field of terahertz, and discloses a terahertz physiotherapy-based wave light control system and a control method thereof, and the system carries out adjustment through accurate calculation of physiotherapy times and energy. The method comprises the following steps: firstly, calculating the energy consumption of each physiotherapy, and calculating the remaining theoretical physiotherapy times according to the remaining energy; if the remaining theoretical physical therapy times are less than the threshold value of the remaining physical therapy times in the next half period, the system can increase energy consumption to ensure that the physical therapy target is completed; if the energy is larger than the threshold value, the system judges that most physical therapy targets are nearly completed, the remaining physical therapy times can be completed by using the remaining energy although the energy is not enough to achieve an ideal effect, and the influence on the whole therapy is small. When the number of remaining theoretical physiotherapy times is equal to the threshold value of the number of remaining physiotherapy times, the system calculates new energy of each time of physiotherapy, and reduces the power to meet the new energy requirement on the premise of not changing the physiotherapy time, thereby continuing the treatment.

Description

Technical Field

[0001] The present invention relates to the field of terahertz technology, and specifically to a light wave control system and a control method for terahertz physiotherapy. Background Art

[0002] Terahertz waves are part of the electromagnetic spectrum, between microwaves and infrared rays, with a frequency range of approximately 0.1 to 10 THz. Terahertz waves can interact with water molecules, proteins, DNA, etc. inside cells, and stimulate vibrations within biological tissues. Since terahertz waves are helpful in promoting cell metabolism, increasing blood circulation, improving cell repair ability, etc., they are considered to have potential assistance for the adjuvant treatment of various diseases.

[0003] When a terahertz device is used for physiotherapy, its energy consumption is closely related to the time and power of fluctuating emission. Different light wave frequencies are selected according to different physiotherapy areas and targets. Therefore, a light wave control system and a control method for terahertz physiotherapy are proposed here. Summary of the Invention

[0004] Aiming at the problems existing in the above-mentioned prior art, the purpose of the present invention is to provide a light wave control system and a control method for terahertz physiotherapy, so as to be able to optimize and adjust the control of light wave usage according to the power consumption of the terahertz device.

[0005] To achieve the above purpose, the present invention provides the following technical solution: A light wave control system for terahertz physiotherapy, including: a calculation module, which is used to design the physiotherapy area and physiotherapy target of the physiotherapy object according to the skin state report, control the light wave frequency of the terahertz device during physiotherapy according to the physiotherapy area and physiotherapy target, and at the same time, determine the number of times of the physiotherapy cycle according to the physiotherapy target. After half a cycle, obtain the power consumption of the terahertz device; a metering module, which is used to allocate the rated power consumption within a cycle to the terahertz device according to the electricity consumption standard and electricity price mode of the physiotherapy place, and half of the rated power consumption is the rated power consumption within half a cycle; a comparison module, which is used to compare the power consumption with half of the rated power consumption. If the power consumption is less than or equal to half of the rated power consumption, it means that the remaining power obtained by subtracting the power consumption from the rated power consumption is sufficient for the terahertz device to use in the second half cycle. If the power consumption is greater than half of the rated power consumption, it means that the remaining power obtained by subtracting the power consumption from the rated power consumption is not enough to support the terahertz device to use in the second half cycle. In this case, the light wave control method of the terahertz device is changed.

[0006] In some embodiments, the changing method is to divide the rated power consumption within a period by the number of physiotherapy sessions to obtain the power consumption per physiotherapy session, divide the remaining power by the power consumption per physiotherapy session to obtain the remaining theoretical number of physiotherapy sessions, compare the remaining theoretical number of physiotherapy sessions with two-thirds of the remaining number of physiotherapy sessions in the second half of the period, and obtain different responses based on the comparison result.

[0007] In some embodiments, if the remaining theoretical number of physiotherapy sessions is less than two-thirds of the remaining number of physiotherapy sessions, it means that in the second half of the period, the remaining power can support a relatively small number of physiotherapy sessions and cannot reach or approach the physiotherapy target. In this case, the power of the terahertz light wave control is increased on the basis of the rated power consumption to complete the physiotherapy; if the remaining theoretical number of physiotherapy sessions is greater than two-thirds of the remaining number of physiotherapy sessions, it means that in the second half of the period, the remaining power can support a number of physiotherapy sessions close to the physiotherapy target. In this case, in the second half of the period, after completing two-thirds of the number of physiotherapy sessions, the remaining power of the remaining power is used to complete the remaining one-third of the physiotherapy; if the remaining theoretical number of physiotherapy sessions is equal to two-thirds of the remaining number of physiotherapy sessions, in the second half of the period, the power control of the terahertz instrument is changed so that the remaining power can complete the number of physiotherapy sessions in the second half of the period.

[0008] In some embodiments, the way to change the power control of the light wave is to divide the remaining power by the remaining number of physiotherapy sessions in the second half of the period to obtain the new power consumption per physiotherapy session in the second half of the period. When the physiotherapy time remains unchanged during each physiotherapy session in the second half of the period, calculate the amount by which the power of the terahertz instrument needs to be reduced so that it conforms to the new power consumption per physiotherapy session, and in each physiotherapy session in the second half of the period, control the power of the terahertz light wave of the terahertz instrument to be reduced to the calculated value for physiotherapy.

[0009] In some embodiments, when the consumed power is less than half of the rated power consumption, if there is remaining power of the rated power consumption after completing the second half of the period in the same way as the first half of the period, the remaining power of the rated power consumption is applied to the second half of the physiotherapy period to improve the physiotherapy effect.

[0010] In some embodiments, the specific way of application is that when the consumed power is less than half of the rated power consumption, subtract the consumed power from the rated power consumption to obtain the remaining power, regard the expected power consumption in the second half of the period as the consumed power, and on this premise, subtract the consumed power from the remaining power to obtain the remaining power of the rated power consumption. The extra remaining power of the rated power consumption is evenly distributed to each physiotherapy session in the second half of the period, so that the physiotherapy time per session in the second half of the period is increased or the number of physiotherapy sessions in the second half of the period is increased.

[0011] In some embodiments, the method for determining whether to use the remaining rated power consumption for increasing the treatment duration of each session in the second half of the cycle or for increasing the number of treatment sessions is as follows: obtain the treatment time and the number of treatment sessions in each treatment cycle according to the original treatment goal, divide the remaining rated power consumption by the number of treatment sessions in the second half of the cycle to obtain the additional power consumption that can be added to each treatment session in the second half of the cycle, calculate the additional time that the additional power consumption will add to each treatment session based on the power control of the terahertz light wave, and at the same time, set an additional time threshold according to the treatment time. Under this additional time threshold, adding a certain amount of time to each treatment session will not cause negative effects on the treatment. Based on this, compare the additional time with the additional time threshold and obtain different responses according to the comparison result.

[0012] In some embodiments, if the additional time is less than or equal to the additional time threshold, it indicates that after adding time to each treatment session, there will be no negative impact on the treatment. In this case, for the remaining rated power consumption, divide it equally among each treatment session in the second half of the cycle to increase the treatment duration of each treatment session in the second half of the cycle; if the additional time is greater than the additional time threshold, it indicates that after adding time to each treatment session, the disadvantages outweigh the advantages for the treatment. In this case, for the remaining rated power consumption, increase the number of treatment sessions in the second half of the cycle and inform the treatment subject of the additional number of treatment sessions so that the treatment subject can arrange their time reasonably.

[0013] The present invention also provides the following technical solutions: The present invention further provides a method for controlling the light wave for terahertz therapy, the method comprising the following steps: First, design the treatment area and treatment goal of the treatment subject according to the skin condition report, control the light wave frequency of the terahertz instrument during treatment according to the treatment area and treatment goal, and at the same time, determine the number of treatment cycles according to the treatment goal. After half a cycle, obtain the power consumption of the terahertz instrument; Second, allocate the rated power consumption for one cycle to the terahertz instrument according to the electricity consumption standard and electricity price model of the treatment site, and half of the rated power consumption is the rated power consumption for half a cycle; Finally, compare the power consumption with half of the rated power consumption. If the power consumption is less than or equal to half of the rated power consumption, it means that the remaining power obtained by subtracting the power consumption from the rated power consumption is sufficient for the terahertz instrument to use in the second half of the cycle. If the power consumption is greater than half of the rated power consumption, it means that the remaining power obtained by subtracting the power consumption from the rated power consumption is not sufficient to support the terahertz instrument to use in the second half of the cycle. In this case, change the light wave control method of the terahertz instrument.

[0014] The present invention further provides a computer-readable storage medium storing a computer program, and the computer program is executed by a processor to implement the above-mentioned terahertz therapy-based light wave control system.

[0015] The technical solution provided by the present invention has the following beneficial effects compared with the prior art: First, in the present invention, the consumed power is compared with half of the rated power consumption. If the power consumption is within the normal range, the system will ensure that the remaining power is sufficient to support the treatment in the second half of the cycle; if the power consumption is excessive, the system will automatically adjust the light wave control mode of the terahertz instrument to reduce the power consumption in the second half of the cycle, so as to ensure that the total power does not exceed the predetermined limit and avoid the additional cost brought by the high electricity price gradient.

[0016] Second, in the present invention, when the remaining power of the terahertz instrument is not enough to support the normal use in the second half of the cycle, the system makes adjustments through precise calculations of the number of physiotherapy sessions and the power. First, calculate the power consumption per physiotherapy session, and deduce the remaining theoretical number of physiotherapy sessions based on the remaining power. If the remaining theoretical number of physiotherapy sessions is less than two-thirds of the remaining number of physiotherapy sessions in the second half of the cycle, the system will increase the power consumption to ensure that the physiotherapy goal can be achieved; if it is greater than two-thirds, the system determines that most of the physiotherapy goals are nearly completed. Although the remaining power is not enough to achieve the ideal effect for the remaining number of physiotherapy sessions, it can be completed with the remaining power and has little impact on the overall treatment. When the remaining theoretical number of physiotherapy sessions is equal to two-thirds of the remaining number of physiotherapy sessions, the system calculates the new power per physiotherapy session and reduces the power without changing the physiotherapy time to meet the new power requirement, so as to continue the treatment. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 is a schematic diagram of the module structure of the present invention; Figure 2 is a schematic diagram of the logical structure of the present invention. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0018] The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0019] It can be understood that the term "one" should be understood as "at least one" or "one or more". That is, in one embodiment, the number of one element can be one, while in other embodiments, the number of this element can be multiple. The term "one" cannot be understood as a limitation on the number.

[0020] The light wave control system for terahertz physiotherapy provided by the present invention, as shown in Figure 1 and Figure 2 shown, includes: A calculation module that analyzes the skin condition report obtained from a physical therapy object during a skin physical therapy examination in a hospital, determines the skin condition of the physical therapy object, and controls a terahertz device to emit terahertz waves of corresponding frequencies to perform physical therapy on the skin of the physical therapy object according to the skin condition of the physical therapy object. Terahertz waves can penetrate the skin and soft tissues and stimulate the vibration of cells, thereby achieving a therapeutic effect. Generally speaking, terahertz waves with lower frequencies (close to 0.1 THz) are suitable for penetrating deeper tissues, helping to promote the metabolism and blood circulation of deeper tissues, while terahertz waves with higher frequencies (close to 10 THz) are more suitable for superficial tissues, capable of improving skin metabolism, relieving local pain and inflammation. In practical applications, the frequency of terahertz waves is controlled according to the physical therapy area and physical therapy goal of the physical therapy object. The number of physical therapy sessions for terahertz physical therapy usually lasts for multiple times, and the total time required for multiple physical therapy sessions is one cycle. After half of the physical therapy cycle, the power consumption of the terahertz device is obtained. In this application, electricity is energy, and energy is electricity, denoted as the consumed power, which is used as a basis for subsequent judgment.

[0021] The metering module obtains the electricity consumption that can be used in one cycle of the terahertz instrument according to the usage situation. When performing physical therapy on the physical therapy object, cost factors need to be comprehensively considered. In addition to the loss of the terahertz instrument itself, the electricity consumption of the terahertz instrument is also an important factor. For places using terahertz physical therapy instruments, it is usually commercial electricity consumption, so the electricity price is often more expensive than that of residential electricity. The pricing mechanism of commercial electricity is not single in many regions, but adopts a stepped growth model. This means that as the electricity consumption increases, the unit electricity price will also increase accordingly, forming a gradually increasing charging structure. Specifically, commercial electricity is generally divided into multiple gradients: the electricity price in the first gradient is more favorable, and once the electricity consumption exceeds this gradient, the electricity price will quickly climb to a higher level. As the electricity consumption further increases, the increase range of the electricity price will also increase, resulting in an increasingly heavy overall electricity bill burden. This stepped electricity price structure is often an incentive and constraint for commercial electricity consumption places, aiming to encourage businesses to minimize electricity consumption and avoid energy waste. However, for places that require a large amount of electricity support, such as terahertz physical therapy hospitals, the higher electricity price and gradually increasing costs mean huge operating cost pressures. Especially in the case of frequent use of such high-power-consuming equipment, the electricity bill expenditure is likely to become a non-negligible part of its operating costs. In addition to the direct impact of the electricity price, the stepped electricity price mechanism also brings challenges to electricity management. The venue operator not only needs to pay attention to the use efficiency of the equipment, but also must flexibly control the electricity consumption, avoid entering the high electricity price gradient, and control the electricity bill expenditure while maintaining the normal operation of the business. In this way, the cost of commercial electricity is not only reflected in the electricity price itself, but also includes the precise management and optimized allocation of electricity consumption. Therefore, it is best to control the electricity consumption of the entire venue under the first gradient. On this basis, because the electricity consumption under the first gradient is fixed, within a certain period of time, separate other electrical equipment in the venue from the terahertz instrument, and allocate the rated electricity consumption within one cycle to the terahertz instrument according to the electricity consumption under the first gradient. Under this rated electricity consumption, for half a cycle, the electricity consumption should be half of the rated electricity consumption, and record this half of the rated electricity consumption as the subsequent judgment basis.

[0022] A comparison module that compares the consumed power of the terahertz device within half a cycle with half of the rated power consumption and makes different responses based on the comparison results. If the consumed power is less than or equal to half of the rated power consumption, it indicates that the power consumption of the terahertz device is within the normal range, the power consumed in the first half cycle is normal, and the remaining power obtained by subtracting the consumed power from the rated power consumption is sufficient for the terahertz device to operate normally in the second half cycle. If the consumed power is greater than half of the rated power consumption, it means that the terahertz device consumes too much power, the power consumed in the first half cycle exceeds half of the rated power consumption, and the remaining power is not sufficient to support the normal operation of the terahertz device in the second half cycle. In this case, it is necessary to change the wave control mode of the terahertz device to reduce the power consumption in the second half cycle so that the total power consumption does not exceed the rated power consumption.

[0023] The wave control system for terahertz physiotherapy ensures both the treatment effect and reasonable cost control during the physiotherapy process by precisely controlling the power consumption. First, the system analyzes the skin condition of the physiotherapy object through a calculation module and treats different layers of skin and tissues with terahertz waves of different frequencies. The metering module reasonably distributes the power according to the usage of the terahertz device, taking into account the tiered pricing mechanism of commercial electricity, to ensure that there is no overspending in the case of higher electricity costs. To this end, the system distributes the rated power consumption within the period according to the fixed power consumption within the first gradient. In the first half cycle of the physiotherapy, the system records the consumed power as the basis for subsequent judgment. The comparison module compares the consumed power with half of the rated power consumption. If the power consumption is within the normal range, the system ensures that the remaining power is sufficient to support the treatment in the second half cycle; if the power consumption is excessive, it will automatically adjust the wave control mode of the terahertz device to reduce the power consumption in the second half cycle, thus ensuring that the total power does not exceed the predetermined limit and avoiding the additional cost brought by the high electricity price gradient. This system not only optimizes the power usage but also effectively reduces the operating cost, making the terahertz physiotherapy more sustainable in a commercial environment.

[0024] The method for changing the light wave control mode of the terahertz instrument is as follows: When the remaining power is not enough to support the normal use of the terahertz instrument in the second half cycle, obtain the specific number of physiotherapy sessions required for one cycle of terahertz physiotherapy according to the physiotherapy information, that is, the number of physiotherapy sessions. Divide the rated power consumption in one cycle by the number of physiotherapy sessions to get the power consumption per physiotherapy session. Divide the remaining power by the power consumption per physiotherapy session to get the remaining theoretical number of physiotherapy sessions. Compare the remaining theoretical number of physiotherapy sessions with two-thirds of the remaining number of physiotherapy sessions in the second half cycle, and obtain different responses according to the comparison results. If the remaining theoretical number of physiotherapy sessions is less than two-thirds of the remaining number of physiotherapy sessions, it means that in the second half cycle, the remaining power can support fewer physiotherapy sessions and cannot reach or approach the physiotherapy target. At this time, in order to achieve the physiotherapy target, it is necessary to increase the power consumption of the light wave control of the terahertz to complete the physiotherapy. Although increasing the power may bring additional costs, in order to achieve the physiotherapy effect, achieving the physiotherapy target takes precedence over power limitations. If the remaining theoretical number of physiotherapy sessions is greater than two-thirds of the remaining number of physiotherapy sessions, it means that in the second half cycle, the remaining power can support more physiotherapy sessions. Although it cannot meet all the physiotherapy targets, it is already close to the physiotherapy target. And because it is greater than two-thirds of the remaining number of physiotherapy sessions, after completing two-thirds of the physiotherapy sessions, there is still remaining power. Although the remaining power is not enough to complete the remaining one-third of the second half cycle according to the power consumption per physiotherapy session, because adding the number of physiotherapy sessions completed in the first half cycle, it can be regarded as having completed five-sixths of the physiotherapy sessions. For the entire physiotherapy cycle, five-sixths of the physiotherapy sessions have been completed, and the physiotherapy target can be regarded as basically completed. Therefore, in this case, the remaining one-sixth of the physiotherapy sessions can be carried out with the remaining power. Although the effect is not as good as that of the previous five-sixths, because the general physiotherapy target has been completed, even if the remaining physiotherapy sessions do not have as good an effect as before, the impact on the whole is relatively small. If the remaining theoretical number of physiotherapy sessions is equal to two-thirds of the remaining number of physiotherapy sessions, it means that in the second half cycle, the remaining power can support more physiotherapy sessions and has approached the number of physiotherapy sessions required by the physiotherapy target, but there is no remaining power. For the entire physiotherapy cycle, it is equivalent to having completed five-sixths of the entire physiotherapy cycle. In this case, when the number of physiotherapy sessions reaches the second half cycle, the light wave power of the terahertz instrument can be reduced so that the remaining power can complete the physiotherapy sessions in the second half cycle. Because after completing half of the physiotherapy sessions, the condition of the physiotherapy object will definitely get better and better. If the condition does not get better after completing half of the physiotherapy sessions, the physiotherapy method should be changed instead of continuing terahertz physiotherapy. Therefore, on this premise, after completing half of the physiotherapy sessions, the condition of the physiotherapy object has gotten better and better, and in the second half cycle, there is no need to continue using the same physiotherapy intensity as in the first half cycle. As the condition improves, it is reasonable to reduce the physiotherapy intensity for targeted physiotherapy.Specifically, when the remaining theoretical number of treatments is equal to two-thirds of the remaining number of treatments, the remaining power is divided by the remaining number of treatments in the second half cycle to obtain the new power used for each treatment in the second half cycle. During each treatment in the second half cycle, the power of the terahertz instrument needs to be reduced to match the new power used for each treatment, provided that the treatment time remains unchanged. In this way, during each treatment in the second half cycle, the wave power of the terahertz instrument is controlled to be reduced to the calculated value for treatment. In general, when the remaining power of the terahertz instrument is insufficient to support normal use in the second half cycle, the system makes adjustments by accurately calculating the number of treatments and the amount of power. First, the power consumption of each treatment is calculated, and the remaining theoretical number of treatments is deduced based on the remaining power. If the remaining theoretical number of treatments is less than two-thirds of the remaining number of treatments in the second half of the cycle, the system will increase power consumption to ensure that the treatment goals are achieved; if it is greater than two-thirds, the system determines that most of the treatment goals are close to completion, and although the remaining number of treatments is not enough to achieve the desired effect, it can be completed with the remaining power, and the overall treatment has little impact. When the remaining theoretical number of treatments is equal to two-thirds of the remaining number of treatments, the system calculates the new power for each treatment, and reduces the power to meet the new power requirements without changing the treatment time, thereby continuing the treatment. The core of this strategy is to dynamically adjust the treatment intensity according to the progress of the treatment to ensure efficient use of power and to achieve the treatment goals as much as possible, while avoiding ineffective power waste and ensuring a balance between the intensity of treatment and power consumption during the treatment process.

[0025] In the above process, when the consumed power is less than or equal to half of the rated power consumption, it means that the remaining power obtained by subtracting the consumed power from the rated power consumption is sufficient for the terahertz instrument to be used normally in the second half cycle. Excluding the case of equality, when the consumed power is less than half of the rated power consumption, the remaining power is sufficient and surplus. On this premise, if the physical therapy method in the first half cycle is continued without any change in the second half cycle, then after the physical therapy cycle is finally completed, the rated power consumption is not used up, and there is still remaining power of the rated power consumption. If this remaining power of the rated power consumption is reserved for other electrical appliances in the venue and evenly distributed to all electrical appliances in the venue, the power share obtained by each electrical appliance is not obvious. Therefore, in this application, for the remaining power of the rated power consumption, it is not reserved and distributed to other electrical appliances in the venue, but the remaining power is used in the second half cycle of the physical therapy cycle to achieve a better physical therapy effect. Specifically: when the consumed power is less than half of the rated power consumption, the remaining power is obtained by subtracting the consumed power from the rated power consumption. The expected power consumption in the second half cycle is regarded as the consumed power. On this premise, the remaining power of the rated power consumption is obtained by subtracting the consumed power from the remaining power. In order to make the physical therapy effect better, the extra remaining power of the rated power consumption can be evenly distributed to each physical therapy in the second half cycle to increase the time of each physical therapy in the second half cycle, or the extra remaining power of the rated power consumption can be used to increase the number of physical therapies, so as to increase the number of physical therapies in the second half cycle. However, on the one hand, the time of each physical therapy should not be too long; on the other hand, increasing the number of physical therapies will increase the number of times the physical therapy object comes to the physical therapy venue, which may affect the time plan of the physical therapy object itself. Therefore, taking all factors into consideration, the following judgment method is used to judge whether to use the extra remaining power of the rated power consumption to increase the duration of each physical therapy in the second half cycle or to increase the number of physical therapies. The judgment method is: obtain the time and number of physical therapies in each physical therapy cycle according to the original physical therapy goal, divide the remaining power of the rated power consumption by the number of physical therapies in the second half cycle to obtain the increased power consumption that can be added to each physical therapy in the second half cycle, calculate the increased time that the increased power consumption will add to each physical therapy according to the light wave control power of terahertz, and at the same time, set an increased time threshold according to the physical therapy time. Under this increased time threshold, adding a certain time to each physical therapy will not cause negative effects on the physical therapy. Based on this, the increased time is compared with the increased time threshold, and different responses are obtained according to the comparison result. If the increased time is less than or equal to the increased time threshold, it indicates that after adding time to each physical therapy, it will not have a negative impact on the physical therapy. In this case, for the extra remaining power of the rated power consumption, it is evenly distributed to each physical therapy in the second half cycle to increase the time of each physical therapy in the second half cycle.If the increased time is greater than the increased time threshold, it indicates that after increasing the time for each physiotherapy session, the disadvantages outweigh the advantages for physiotherapy. In this case, for the remaining electricity of the extra rated electricity consumption, increase the number of physiotherapy sessions in the second half cycle and inform the physiotherapy recipient of the extra number of sessions, so that the physiotherapy recipient can arrange their time reasonably. Generally speaking, when the consumed electricity is less than half of the rated electricity consumption, there is sufficient remaining electricity. The system decides to use this remaining electricity for physiotherapy in the second half cycle instead of allocating it to other electrical appliances in the venue. To optimize the treatment effect in the second half cycle, the remaining electricity can be used in two ways: one is to increase the time for each physiotherapy session, and the other is to increase the number of physiotherapy sessions. First, based on the original physiotherapy goal, obtain the time and number of times for each physiotherapy session, and use the remaining electricity to calculate the additional electricity that can be added. If the increased time does not have a negative impact on the physiotherapy effect (i.e., the increased time is less than or equal to the increased time threshold), then choose to increase the time for each physiotherapy session; if the increased time exceeds the threshold and may have a negative effect, the system will choose to increase the number of physiotherapy sessions and notify the physiotherapy recipient to arrange their time reasonably. This flexible adjustment method aims to ensure the maximization of the treatment effect while avoiding bringing too much inconvenience to the physiotherapy recipient.

[0026] Embodiments disclosed in the present invention, the processes described above with reference to the flowcharts can be implemented as computer software programs. Embodiments disclosed in the present invention include a computer program product, which includes a computer program carried on a computer-readable medium, and the computer program contains program codes for executing the methods shown in the flowcharts. In such an embodiment, the computer program can be downloaded and installed from the network through the communication part, and / or installed from a removable medium. When the computer program is executed by the central processing unit, the above functions defined in the methods of the present application are executed. It should be noted that the above computer-readable medium in the present application can be a computer-readable signal medium or a computer-readable storage medium or any combination of the two. A computer-readable storage medium can be, for example, but not limited to, an electrical, magnetic, optical, electromagnetic, infrared, or semiconductor system, apparatus, or device, or any combination of the above. More specific examples of the computer-readable storage medium can include, but are not limited to: an electrical connection having one or more wire segments, a portable computer disk, a hard disk, a random access memory, a read-only memory, an erasable programmable read-only memory, an optical fiber, a portable compact disk read-only memory, an optical storage device, a magnetic storage device, or any suitable combination of the above. In the present application, the computer-readable storage medium can be any tangible medium that contains or stores a program, and the program can be used by or combined with an instruction execution system, apparatus, or device. In the present application, a computer-readable signal medium can include a data signal propagated in a baseband or as part of a carrier wave, which carries the computer-readable program code. Such a propagated data signal can take various forms, including but not limited to electromagnetic signals, optical signals, or any suitable combination of the above. The computer-readable signal medium can also be any computer-readable medium other than the computer-readable storage medium, and the computer-readable medium can send, propagate, or transmit a program for use by or combined with an instruction execution system, apparatus, or device. The program code contained on the computer-readable medium can be transmitted by any appropriate medium, including but not limited to: wireless segments, wire segments, optical cables, RF, etc., or any suitable combination of the above.

[0027] The flowcharts and block diagrams in the accompanying drawings illustrate the possible architectures, functions, and operations of systems, methods, and computer program products according to various embodiments of the present invention. In this regard, each block in the flowchart or block diagram may represent a module, a segment of a program, or a portion of code that contains one or more executable instructions for implementing a specified logical function. It should also be noted that, in some alternative implementations, the functions noted in the blocks may occur in a different order than that noted in the accompanying drawings. For example, two consecutive blocks shown may actually be executed substantially in parallel, or they may sometimes be executed in the reverse order, depending on the functions involved. It should also be noted that each block in the block diagram and / or flowchart, and combinations of blocks in the block diagram and / or flowchart, can be implemented by a dedicated hardware-based system that performs the specified functions or operations, or can be implemented by a combination of dedicated hardware and computer instructions.

[0028] Those skilled in the art should understand that the above description is only a specific implementation of the present application, but the protection scope of the present application is not limited thereto. Any changes or substitutions that can be easily thought of by those skilled in the art within the technical scope disclosed in the present application should be covered by the protection scope of the present application.

Claims

1. A wave light control system for terahertz therapy, characterized in that: include: A calculation module is used to design a treatment area and treatment target of a treatment object according to the skin condition report, control the wave frequency of the terahertz device during treatment according to the treatment area and treatment target, and determine the number of treatment cycles according to the treatment target, and obtain the consumed energy of the terahertz device after half a cycle. A metering module is used to allocate a rated energy consumption within a cycle to the terahertz instrument according to the energy consumption standard and energy price model of the physical therapy site, and half of the rated energy consumption is the rated energy consumption within half a cycle; A comparison module is used to compare the consumed energy with half of the rated energy. If the consumed energy is less than or equal to half of the rated energy, it means that the remaining energy obtained by subtracting the consumed energy from the rated energy is sufficient for the terahertz instrument to be used in the second half of the cycle. If the consumed energy is greater than half of the rated energy, it means that the remaining energy obtained by subtracting the consumed energy from the rated energy is not sufficient to support the use of the terahertz instrument in the second half of the cycle. In this case, the wave light control method of the terahertz instrument is changed.

2. The wave light control system for terahertz therapy according to claim 1, characterized in that: The change method is to divide the rated energy consumption in a cycle by the number of physical treatments to get the energy consumption for each physical treatment, divide the remaining energy by the energy consumption for each physical treatment to get the remaining theoretical number of physical treatments, compare the remaining theoretical number of physical treatments with two-thirds of the remaining number of physical treatments in the second half of the cycle, and come to different responses based on the comparison results.

3. The wave light control system for terahertz therapy according to claim 2, characterized in that: If the remaining theoretical number of treatments is less than two-thirds of the remaining number of treatments, it means that in the second half of the cycle, the remaining energy can support fewer treatments and cannot reach or approach the treatment target. In this case, the terahertz wave control is given more energy than the rated energy to complete the treatment; if the remaining theoretical number of treatments is greater than two-thirds of the remaining number of treatments, it means that in the second half of the cycle, the remaining energy can support closer to the treatment target. In this case, in the second half of the cycle, after completing two-thirds of the treatments, the remaining energy is used to complete the remaining one-third of the treatments; if the remaining theoretical number of treatments is equal to two-thirds of the remaining number of treatments, in the second half of the cycle, the terahertz wave control power is changed so that the remaining energy can complete the number of treatments in the second half of the cycle.

4. The wave light control system for terahertz therapy according to claim 3, characterized in that: The way to change the wave-light control power is to use the remaining energy to divide the remaining number of treatments in the second half cycle to obtain the new energy used for each treatment in the second half cycle. During each treatment in the second half cycle, the amount by which the power of the terahertz instrument needs to be reduced is calculated while keeping the treatment time unchanged so that it matches the new energy used for each treatment. During each treatment in the second half cycle, the wave-light power of the terahertz instrument is controlled to be reduced to the calculated value to perform the treatment.

5. The wave light control system for terahertz therapy according to claim 1, characterized in that: When the consumed energy is less than half of the rated energy, if there is residual energy of the rated energy after completing the second half cycle in the same manner as the first half cycle, the residual energy of the rated energy will be applied to the second half cycle of the therapy cycle to enhance the therapy effect.

6. The wave light control system for terahertz therapy according to claim 5, characterized in that: The specific way of action is that when the consumed energy is less than half of the rated energy, the rated energy is subtracted from the consumed energy to obtain the remaining energy, and the estimated energy consumption in the second half of the cycle is regarded as the consumed energy. Under this premise, the remaining energy is subtracted from the consumed energy to obtain the remaining energy of the rated energy, and the excess remaining energy of the rated energy is evenly distributed to each physical therapy in the second half of the cycle, thereby increasing the time of each physical therapy in the second half of the cycle or increasing the number of physical therapy in the second half of the cycle.

7. The wave light control system for terahertz therapy according to claim 6, characterized in that: The method for judging whether to use the excess rated energy to increase the duration of each physical treatment in the second half cycle or to increase the number of physical treatments is to obtain the physical treatment time and number of physical treatments in each physical treatment cycle according to the original physical treatment goal, and divide the rated energy surplus by the number of physical treatments in the second half cycle to obtain the energy that can be increased for each physical treatment in the second half cycle. The energy that can be increased is calculated based on the terahertz wave light control power, and the time added to each physical treatment is increased. At the same time, a time increase threshold is set according to the physical treatment time. Under this time increase threshold, adding a certain time to each physical treatment will not cause negative effects on the physical treatment. Based on this, the increase time is compared with the time increase threshold, and different responses are obtained according to the comparison results.

8. The wave light control system for terahertz therapy according to claim 7, characterized in that: If the increased time is less than or equal to the increased time threshold, it indicates that increasing the time for each physical therapy will not have a negative impact on the physical therapy. In this case, the excess rated energy is evenly distributed to each physical therapy in the second half cycle to increase the time of each physical therapy in the second half cycle. If the increased time is greater than the increased time threshold, it indicates that adding time to each physical therapy session will do more harm than good. In this case, the excess rated energy will be used to increase the number of physical therapy sessions in the second half cycle, and the extra number of physical therapy sessions will be notified to the person being treated so that the person can arrange his or her time reasonably.

9. The wave light control method for terahertz therapy according to any one of claims 1 to 8, characterized in that: The method includes the following: first, designing a therapy area and a therapy target of a therapy object according to a skin condition report, controlling the wave frequency of the terahertz instrument during therapy according to the therapy area and the therapy target, and at the same time, determining the number of therapy cycles according to the therapy target, and obtaining the consumed energy of the terahertz instrument after half a cycle; second, allocating a rated energy consumption within a cycle to the terahertz instrument according to the energy consumption standard and energy price model of the therapy site, and half of the rated energy consumption is the rated energy consumption within half a cycle; finally, comparing the consumed energy with half of the rated energy consumption, if the consumed energy is less than or equal to half of the rated energy consumption, it means that the remaining energy obtained by subtracting the consumed energy from the rated energy is sufficient for the terahertz instrument to be used in the second half of the cycle, and if the consumed energy is greater than half of the rated energy consumption, it means that the remaining energy obtained by subtracting the consumed energy from the rated energy is insufficient to support the use of the terahertz instrument in the second half of the cycle, in which case the wave control method of the terahertz instrument is changed.

10. A computer-readable storage medium, characterized in that: The computer-readable storage medium stores a computer program, and the computer program is executed by a processor to implement a wave-light control system for terahertz therapy as described in any one of claims 1 to 8.

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