Phototherapy system and non-invasive treatment system

Abstract

The application discloses a phototherapy system and a non-invasive treatment system, relates to the field of medical devices, and aims to solve the problems of lamp uniformity, structural complexity and treatment scientificity. The phototherapy system comprises a light control unit and at least one group of phototherapy lamps. The phototherapy lamps comprise a plurality of full-spectrum lamp heads arranged in an array. Each lamp head weakens the 430nm-450nm band component and enhances the 475nm-485nm band component. The light control unit controls the illumination of the corresponding phototherapy lamps according to the configured illumination mode. The medical record management module is used for storing patient medical records. The report management module is used for generating a phototherapy report according to the illumination mode. The lamps of the phototherapy system have the characteristics of uniform illumination, simple structure and high treatment efficiency. The system can simultaneously control the illumination of multiple groups of lamps efficiently, accurately and traceably.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of medical devices, and in particular to a phototherapy system and a non-invasive treatment system. BACKGROUND

[0002] The effectiveness of using natural light or simulated natural light to treat diseases or improve physical indicators has been proven in a large number of practices and researches.

[0003] At present, common phototherapy lamps usually use a single point light source for irradiation. The light uniformity of the single point light source is poor. In addition, because phototherapy has a minimum requirement for illumination intensity, the lighting power of the single point light source will generate high heat when meeting the illumination intensity, and the passive heat dissipation mechanism such as the heat dissipation fin cannot meet the requirement of timely heat dissipation, and only the active heat dissipation mechanism such as the fan can be used, which will increase the height and structural complexity of the lamp.

[0004] Phototherapy lamps have single light and full spectrum, and the single light lamp is only suitable for some specific use occasions, and the common full spectrum lamp has a certain proportion of blue light band, and too much blue light has potential damage to the eyes of patients.

[0005] In addition, the current common phototherapy lamps are almost used independently, and not formed into a system. The doctor opens the lamp for each patient individually and temporarily, and the treatment efficiency is not high when there are multiple patients. There is no record of light parameters, and the treatment process does not have traceability. In addition, the working power of such lamps is fixed or adjusted through a simulated knob, and the light parameters of each patient are completely determined by the subjective judgment of the doctor, and it is impossible to scientifically and accurately meet the individual needs of different patients. SUMMARY

[0006] The purpose of the present application is to at least solve the problems of the lamp in the uniformity of illumination, structural complexity and scientificity of treatment.

[0007] The technical solutions adopted by the present application are as follows:

[0008] A phototherapy system, comprising a phototherapy module, a medical record management module and a report management module;

[0009] The light illumination module comprises a light illumination control unit and at least one group of light illumination treatment lamps; the light illumination treatment lamps comprise a plurality of full-spectrum lamp heads, and each of the lamp heads is arranged in an array; each of the lamp heads weakens the proportion of spectral components in a 430nm-450nm wave band and enhances the proportion of spectral components in a 475nm-485nm wave band; the light illumination control unit is configured to receive a configuration of a lighting mode of at least one group of the light illumination treatment lamps and control the lighting of the corresponding light illumination treatment lamps according to the configured lighting mode;

[0010] The medical record management module is configured to store patient medical records.

[0011] The report management module is configured to generate a light illumination treatment report according to the lighting mode.

[0012] In addition, the present application also provides a non-invasive treatment system, which comprises a light illumination module, a scale evaluation module, a medical record management module and a report management module.

[0013] The light illumination module comprises a light illumination control unit and at least one group of light illumination treatment lamps; the light illumination treatment lamps comprise a plurality of full-spectrum lamp heads, and each of the lamp heads is arranged in an array; each of the lamp heads weakens the proportion of spectral components in a 430nm-450nm wave band and enhances the proportion of spectral components in a 475nm-485nm wave band; the light illumination control unit is configured to receive a configuration of a lighting mode of at least one group of the light illumination treatment lamps and control the lighting of the corresponding light illumination treatment lamps according to the configured lighting mode.

[0014] The scale evaluation module comprises a scale issuing unit and a scale feedback unit; the scale issuing unit generates and issues a scale to a target patient in response to a fourth instruction; and the scale feedback unit generates a feedback scale in response to an operation of the target patient on the scale.

[0015] The medical record management module is configured to store patient medical records.

[0016] The report management module is configured to generate a light illumination treatment report according to the lighting mode and a scale evaluation report according to the feedback scale.

[0017] As described above, due to the adoption of the above technical solutions, the present application has the following beneficial effects:

[0018] The light therapy system and non-invasive treatment system provided by the present application adopt an array structure of multiple lamp heads, which reduces the requirement for the light emitting power of a single lamp head, so that the lamp adopts a passive heat dissipation mechanism to meet the timely heat dissipation requirement, thereby reducing the size and structural complexity of the lamp. In addition, the lamp adopts a full daylight spectrum lamp head, which has a wide range of applications, while weakening the harmful blue light spectrum component and strengthening the beneficial spectrum component of the 470-490nm waveband with the highest response efficiency of the intrinsic photosensitive ganglion cells (ipRGC), which can improve the light therapy efficiency. The system of the present application centrally manages multiple groups of light therapy lamps, which can realize traceable, accurate and personalized treatment for each patient, and greatly improve the efficiency of multi-patient treatment. BRIEF DESCRIPTION OF DRAWINGS

[0019] The present application will be described by way of example and with reference to the accompanying drawings, in which:

[0020] Figure 1 is a structural diagram of the light therapy system provided by the embodiment of the present application.

[0021] Figure 2 is a structural diagram of the light therapy lamp provided by the embodiment of the present application.

[0022] Figure 3 is a flowchart of the operation of the light therapy system in the embodiment of the present application.

[0023] Figure 4 is a structural diagram of the non-invasive treatment system provided by the embodiment of the present application.

[0024] Figure 5 is a flowchart of the operation of the non-invasive treatment system provided by the embodiment of the present application. DETAILED DESCRIPTION

[0025] All features disclosed in this specification, or all steps of any methods or processes disclosed, may be combined in any combination, except combinations where at least some of the features and / or steps are mutually exclusive.

[0026] Any feature disclosed in this specification, unless stated otherwise, can be replaced by any equivalent or similar feature. That is, unless stated otherwise, each feature is one example only of a generic series of equivalent or similar features.

[0027] In view of the poor light uniformity, high structural complexity, untraceable use history, and inability to accurately meet the individual needs of different patients of the existing phototherapy lamps, the embodiments of the present application provide a phototherapy system and a non-invasive treatment system, aiming to reduce the structural complexity of the lamps, improve the light uniformity, and endow the phototherapy system with traceability, high efficiency, individualization, and high precision.

[0028] In some embodiments, as shown in Figure 1 The phototherapy system includes a light module, a medical record management module, and a report management module.

[0029] The light module includes a light control unit and at least one set of phototherapy lamps connected to the light control unit. The phototherapy lamps include a plurality of full-spectrum lamp heads, which are arranged in an array and collectively used on a patient to improve the uniformity of the light. Moreover, when each lamp head does not need to emit high power to meet the minimum light intensity requirement, the heat generation is reduced, so that the lamps can meet the timely heat dissipation requirement through passive heat dissipation structures such as heat dissipation fins, thereby reducing the structural complexity and volume. Each lamp head reduces the proportion of spectral components in the 430nm-450nm waveband, which is a blue-rich waveband and has potential damage to the patient's retina. Each lamp head enhances the proportion of spectral components in the 470nm-490nm waveband, which is the region with the highest response efficiency of intrinsic photosensitive retinal ganglion cells, and can significantly improve the MR value (melatonin luminance conversion ratio), thereby improving the efficiency of phototherapy. In some specific embodiments, the spectral components such as 475nm-485nm can be enhanced. The means for weakening or enhancing the spectral components can be achieved by means known in the art. The light control unit is configured to receive configurations of lighting modes for at least one set of phototherapy lamps and control the lighting of the corresponding phototherapy lamps according to the configured lighting modes. For example, when there are three patients receiving phototherapy at the same time, the light control unit receives configurations of lighting modes for three sets of phototherapy lamps, respectively, and then controls the lighting of the three sets of phototherapy lamps according to the configurations, without the need to operate each set of phototherapy lamps separately, thereby greatly improving the efficiency of phototherapy for multiple patients.

[0030] The medical record management module is configured to store patient medical records. Storing patient medical records in the phototherapy system can realize the calling of patient medical records and facilitate the efficient configuration of lighting modes.

[0031] The report management module is configured to generate a phototherapy report according to the lighting mode. Generating a phototherapy report in the phototherapy system can realize the recording of the light parameters of each phototherapy for different patients, thereby realizing the traceability of phototherapy.

[0032] As an optional embodiment, as shown in Figure 2As shown, a set of light therapy lamps is arranged by 4 lamp head arrays, which can reduce glare and make the light beam more soft and natural while expanding the light coverage area. The rear end of each lamp head is connected to a heat dissipation fin for heat dissipation. The heat dissipation fin adopts a cylindrical structure, and the heat dissipation fin extends in the radial direction and is uniformly arranged in the axial direction. In addition, a wire slot can be provided on the heat dissipation fin to guide the power lines of each lamp head and avoid entanglement between the cables.

[0033] The light therapy lamp of the present application can be installed using a fast installation structure, such as a magnetic structure, because the weight and volume of the lamp are reduced. This facilitates the installation and maintenance of the lamp. In addition, a anti-dropping rope is connected to the mounting rack, and the other end of the anti-dropping rope is used to fix to the ceiling joist or other safe position.

[0034] In some optional embodiments, the lighting mode includes a configuration of light intensity and a configuration of light time. Current light therapy lamps are usually not adjustable in light power, or only run through an analog knob (controlling the resistance of the power line) to control the light power. The former changes the distance from the lamp to the patient by moving the lamp, thereby changing the light intensity acting on the patient. The current light therapy lamp cannot accurately control the light scheme of each patient, and the scientificity of treatment is poor, which affects the treatment effect. The embodiments of the present application can accurately control the light intensity and light time of each lamp, thereby realizing accurate and personalized control of light therapy for different patients and improving the efficiency of light therapy.

[0035] In some feasible embodiments, the light control unit stores at least one lighting mode, and the light control unit completes the configuration of the lighting mode by receiving the selection of the stored lighting mode. It should be noted that after the light control unit receives the selection of the stored lighting mode, it can also receive the adjustment of the selected lighting mode, thereby completing the configuration of the lighting mode. In addition, the selection of the stored lighting mode received by the light control unit can be the selection of part of the complete lighting mode, or the selection of the complete lighting mode. For the former, the configuration of the remaining part is also needed to complete the configuration of the lighting mode.

[0036] As an optional embodiment, the light control unit is configured to:

[0037] in response to receiving the first instruction, calling at least one target patient medical record from the medical record management module;

[0038] in response to receiving the second instruction, determining the target light therapy lamp corresponding to the target patient medical record from the at least one set of light therapy lamps;

[0039] In response to receiving a third instruction, configure the lighting mode of the target light therapy lamp.

[0040] The light control unit can simultaneously access the medical records of patients with the same or similar needs, and then configure the same lighting mode for multiple groups of light therapy lamps, thereby further improving the efficiency of light therapy.

[0041] As an optional implementation, the light control unit is also configured to: associate and display the target patient's medical record with the corresponding target light therapy lamp. This shows which patient is receiving light therapy with which group of light therapy lamps, thus avoiding confusion when configuring lighting modes for multiple groups of light therapy lamps simultaneously. Furthermore, it facilitates quick deletion of light therapy lamps configured for a specific patient; for example, a one-click delete button is provided below each associated group of target patient medical records and target light therapy lamps, allowing users to quickly delete all treatment plans configured for that patient.

[0042] As an optional implementation, the light therapy control unit includes a main control unit and a secondary control unit; the main control unit serves as the normal operating control unit, and the secondary control unit serves as the emergency control unit. The main control unit is responsible for all daily operations, while the secondary control unit is activated when an emergency shutdown or adjustment of a group of light therapy lamps is required. For example, the main control unit can control each group of light therapy lamps via Bluetooth Mesh (the light therapy lamps also support Bluetooth), while the secondary control unit can control the light intensity and on / off state of each group of light therapy lamps via Bluetooth. This secondary control unit can be configured on a manual control panel.

[0043] like Figure 3 As shown, the operation method of the light therapy system includes:

[0044] Log in to the light therapy system using your account;

[0045] Enter the illumination module and select at least one target patient's medical record from the medical record management unit through the illumination control unit;

[0046] Select a set of light therapy lamps for each target patient;

[0047] The lighting mode of each group of light therapy lamps can be configured. Each group of light therapy lamps can be configured with the same lighting mode or with different lighting modes.

[0048] Click "Start Treatment," and each group of light therapy lamps will start working according to the configured lighting mode. The system will count down, and when the countdown ends, each group of light therapy lamps will turn off.

[0049] During the process, clicking "End Treatment" will immediately turn off all light therapy lamps in each group;

[0050] After treatment, the report management module generates a light therapy report for each target patient based on the illumination mode of each group of light therapy lamps. The light therapy report may include patient information (such as patient name, age, symptoms, and other basic information) and treatment information (such as report name, light therapy lamp identification, illumination mode, etc.).

[0051] This application also provides a non-invasive treatment system, such as... Figure 4 As shown, the non-invasive treatment system includes a light therapy module, a scale assessment module, a medical record management module, and a report management module.

[0052] The illumination module includes an illumination control unit and at least one set of light therapy lamps; the light therapy lamps include multiple full-daylight spectrum lamp heads, each lamp head arranged in an array; each lamp head reduces the proportion of spectral components in the 430nm-450nm band and increases the proportion of spectral components in the 475nm-485nm band; the illumination control unit is used to receive the configuration of the illumination mode for at least one set of light therapy lamps, and to control the illumination of the corresponding light therapy lamps according to the configured illumination mode.

[0053] The scale assessment module includes a scale distribution unit and a scale feedback unit; the scale distribution unit responds to the fourth instruction, generates and distributes the scale to the target patient; the scale feedback unit responds to the target patient's operation on the scale, and generates a feedback scale.

[0054] The medical record management module is used to store patient medical records.

[0055] The report management module is used to generate light therapy reports based on lighting patterns and scale assessment reports based on feedback scales.

[0056] A scale, in essence, is a type of test or guided survey data that collects information about a patient's symptoms by analyzing responses to or reproduction of the data. For example, in psychotherapy, scales may consist of psychological assessment questions; in the treatment of cognitive impairment, scales may involve drawing; and in interest development, scales may consist of interest-based questions.

[0057] The relevant features of the illumination module can be found in the previous embodiments. For the scale assessment module, in some embodiments, its scale distribution unit and scale feedback unit are located on different terminal devices.

[0058] Typically, the scale distribution unit resides on the physician's terminal (usually a PC), while the scale feedback unit resides on the patient's terminal (PC or mobile device). In some specific embodiments, the scale distribution unit is configured as follows:

[0059] In response to receiving the fourth instruction, the system retrieves the patient medical records managed by the medical record management module and selects the target patient medical record from them.

[0060] In response to the configuration of the scale, the scale is generated and sent to the terminal corresponding to the target patient's medical record.

[0061] In contrast, the scale feedback unit is configured as follows:

[0062] Receive scales distributed by the scale distribution unit;

[0063] In response to the operation on this scale, a feedback scale is generated and sent to the report management module.

[0064] like Figure 5 The diagram shows the workflow of the scale distribution unit and the scale feedback unit. The report management module generates a corresponding scale assessment report for the target patient based on the feedback scale.

[0065] In some alternative implementations, the non-invasive treatment system is also equipped with a peripheral interface for connecting other external devices that can work in conjunction with the illumination module and the scale assessment module. These external devices include, for example, devices for monitoring heart rate, devices for monitoring electroencephalogram (EEG) or brain oxygenation, and multimedia devices, to expand the treatment options for the patient or to assist in monitoring vital signs during non-invasive treatment.

[0066] This invention is not limited to the specific embodiments described above. The invention extends to any new feature or combination disclosed in this specification, as well as any new method or process step or combination disclosed herein.

Claims

1. A phototherapy system, characterized in that, It includes a lighting module, a medical record management module, and a report management module; The illumination module includes an illumination control unit and multiple sets of light therapy lamps connected to the control unit. Each light therapy lamp includes multiple full-daylight spectrum lamp heads arranged in an array. The lamps employ a passive heat dissipation structure, with each lamp head connected to a heat sink at its rear end. These heat sinks are cylindrical, extending radially and evenly distributed axially. Each lamp head reduces the proportion of spectral components in the 430nm-450nm wavelength range and increases the proportion of spectral components in the 470nm-490nm wavelength range. The illumination control unit receives configurations of the illumination mode for each set of light therapy lamps and controls the illumination of the corresponding lamps according to the configured illumination mode. The illumination mode includes configurations of light intensity and illumination duration. The medical record management module is used to store patient medical records for retrieval; The report management module is used to generate a light therapy report based on the lighting pattern.

2. The phototherapy system as described in claim 1, characterized in that, The illumination control unit stores at least one lighting mode. The illumination control unit configures the lighting mode by receiving selections of the stored lighting modes. Specifically, the selection of a stored lighting mode received by the illumination control unit is a selection of a portion of the configurations of a complete lighting mode, and the configuration of the lighting mode is completed by receiving the configurations of the remaining portions of the complete lighting mode. Alternatively, the selection of a stored lighting mode received by the illumination control unit is a selection of all configurations of the complete lighting mode.

3. The phototherapy system as described in any one of claims 1-2, characterized in that, The illumination control unit is configured as follows: In response to receiving a first instruction, at least one target patient's medical record is retrieved from the medical record management module; In response to receiving a second instruction, the target light therapy lamp corresponding to the target patient's medical record is determined from the at least one group of light therapy lamps, and the target patient's medical record and the corresponding target light therapy lamp are displayed together. In response to receiving a third instruction, the illumination mode of the target light therapy lamp is configured.

4. The phototherapy system as described in claim 1, characterized in that, The illumination control unit includes a main control unit and a secondary control unit; the main control unit serves as a normal control unit, and the secondary control unit serves as an emergency control unit.

5. A non-invasive treatment system, characterized in that, The non-invasive treatment system includes a light therapy module, a scale assessment module, a medical record management module, and a report management module; The illumination module includes an illumination control unit and multiple sets of light therapy lamps connected to the control unit. Each light therapy lamp includes multiple full-daylight spectrum lamp heads arranged in an array. The lamps employ a passive heat dissipation structure, with each lamp head connected to a heat sink at its rear end. These heat sinks are cylindrical, extending radially and uniformly distributed axially. Each lamp head reduces the proportion of spectral components in the 430nm-450nm wavelength range and increases the proportion of spectral components in the 475nm-485nm wavelength range. The illumination control unit receives configurations of the illumination mode for each set of light therapy lamps and controls the illumination of the corresponding lamps according to the configured illumination mode. The illumination mode includes configurations of light intensity and illumination duration. The scale assessment module includes a scale distribution unit and a scale feedback unit; the scale distribution unit responds to the fourth instruction to generate and distribute the scale to the target patient; the scale feedback unit responds to the target patient's operation on the scale to generate a feedback scale. The medical record management module is used to store patient medical records for retrieval; The report management module is used to generate a light therapy report based on the lighting mode and a scale assessment report based on the feedback scale.

6. The non-invasive treatment system as described in claim 5, characterized in that, The scale distribution unit and the scale feedback unit are located on different terminal devices.

7. The non-invasive treatment system as described in claim 5 or 6, characterized in that, The illumination control unit is configured as follows: In response to receiving a first instruction, at least one target patient's medical record is retrieved from the medical record management module; In response to receiving a second instruction, the target light therapy lamp corresponding to the target patient's medical record is determined from the at least one group of light therapy lamps, and the target patient's medical record and the corresponding target light therapy lamp are displayed together. In response to receiving a third instruction, the illumination mode of the target light therapy lamp is configured.

8. The non-invasive treatment system as described in claim 5, characterized in that, It also includes peripheral interfaces.

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