CN206227810U - Intelligent insole for rehabilitation training in remote medical mode - Google Patents

Abstract

The utility model discloses an intelligent insole for rehabilitation training in a telemedicine mode. The intelligent insole includes a functional layer, the functional layer includes a front section, a middle section, and a rear section, and a plurality of affected parts of the front section and the rear section A number of pressure sensors are respectively arranged at the force points, and a data acquisition box is installed in the middle section. The control circuit board and battery module are built in the data acquisition box. The control circuit board communicates with each pressure sensor to collect the force sequence and pressure of each pressure sensor. Value, stress frequency and stress times, and then generate the patient's training records, control the circuit board to communicate with a user's smart device, and the user's smart device communicates with a remote medical center. It will remind the patient to carry out rehabilitation training and monitor whether the training meets the requirements, including the sequence of stress points, pressure value, frequency, steps, etc. If it is not correct, the buzzer will give the patient a corresponding alarm reminder. After the training is over, the system will automatically generate a training record.

Description

A smart insole for rehabilitation training in telemedicine mode

technical field

The utility model relates to the medical field, in particular to an intelligent insole used for rehabilitation training in a telemedicine mode.

Background technique

According to the survey, 50% of the postoperative rehabilitation training is unsupervised or the physical therapy method is wrong, and it is expensive and inconvenient to stay in the hospital or physical therapy place for a long time. With the penetration of wearable technology in the operating room and postoperative rehabilitation field, the postoperative rehabilitation training mode is gradually becoming mobile, convenient and efficient, which can improve the efficiency of hospital treatment and the effect of patient rehabilitation, and shorten the time of patients in the hospital. At present, relevant researchers are trying to monitor and guide patients' postoperative rehabilitation training by detecting and feeding back the patient's movement information through wearable devices. According to the research situation, it is found that there are few wearable devices used to assist patients in rehabilitation training after surgery, and they are basically in the experimental research stage, and have not yet been promoted clinically. Therefore, developing a wearable device for postoperative rehabilitation training has become an important requirement for postoperative rehabilitation and effect evaluation.

Most of the current smart insoles use flexible sensing devices. The sensor has a relaxation effect and can only reflect changes in plantar pressure, but cannot obtain accurate pressure values. In addition, the current smart insole is only a collection device, mainly used for gait analysis and stress assessment, and does not combine with the doctor's training program for training assessment. Therefore, it is possible for postoperative patients to perform accurate and effective rehabilitation training at home under the guidance of a doctor, which has strong medical value and professional protection. Based on this, the utility model of this patent proposes a smart insole for telemedicine.

Contents of the invention

In order to solve the above-mentioned technical problems, the purpose of the invention of this utility model is to provide a smart insole for rehabilitation training in telemedicine mode, which meets the needs of wearable devices in the field of postoperative monitoring and rehabilitation training, so as to ensure the safety of postoperative patients. Restoration based on home conditions.

In order to achieve the purpose of the above invention, the utility model provides the following technical solutions: an intelligent insole for rehabilitation training in telemedicine mode, the intelligent insole includes a functional layer, and the functional layer includes front sections arranged sequentially from front to back , the middle section and the back section, the front section corresponds to the position of the sole of the foot, the middle section corresponds to the position of the arch of the foot, the back section corresponds to the position of the heel, the front section and the back section A plurality of pressure sensors are respectively arranged at a plurality of stress points, and a data acquisition box is provided in the middle section, and a control circuit board and a battery module are built in the data acquisition box, and the control circuit board communicates with each pressure sensor to collect The stress sequence, pressure value, stress frequency, and stress times of each pressure sensor generate a training record for the patient. The control circuit board communicates with a user smart device to send the training record to the user smart device. The smart user device is communicatively connected to a telemedicine center to receive training plans from the telemedicine center, send training records to the telemedicine center, and display the training plans and training records.

In the above technical solution, the control circuit board also receives a training plan from the user smart device, and an alarm is built in the data collection box, and the control circuit board controls and connects the alarm to realize training and training Raise an alarm when the plan does not match.

In the above technical solution, a wireless module is built in the data collection box, and the control circuit board transmits data with the user smart device through the wireless module.

In the above technical solution, the user smart device also transmits data between the wristband worn on the patient's wrist and the control circuit board.

In the above technical solution, the data acquisition box is provided with a pressure acquisition interface and a charging interface, the control circuit board is wired to each pressure sensor through the pressure acquisition interface, and the battery module is charged through the charging interface.

In the above technical solution, the smart insole further includes a base layer and a cover layer respectively clamped and arranged on the lower side and the upper side of the functional layer.

In the above technical solution, the part of the cover layer corresponding to the positions of the front section and the rear side section is made of rigid material, and the part of the cover layer corresponding to the position of the middle section is made of elastic material.

Due to the use of the above-mentioned technical solutions, the utility model has the following advantages compared with the prior art: the smart insole disclosed by the utility model has three layers, the lower layer is the shoe pad bottom plate, the middle layer is the front half of the sole, the rear half and the data collection box, the upper layer It is the insole cover plate, the front and rear parts are made of rigid material, and the middle is connected with soft material, wherein, the data transmission between the insole device and the peripheral smart device is carried out through Bluetooth. According to the training plan issued by the doctor, the device will remind the patient to carry out rehabilitation training and monitor whether the training meets the requirements, including the sequence of stress points, pressure value, frequency, steps, etc. If it is not correct, the buzzer will give the patient a corresponding alarm reminder. After the training is over, the system will automatically generate a training record. In addition, the insole unit is powered by a lithium battery that can be recharged using the microUSB port.

Description of drawings

Fig. 1 is the exploded schematic view of the smart insole used for rehabilitation training under the telemedicine mode of the present utility model;

Fig. 2 is a schematic diagram of data transmission of the method for rehabilitation training under the telemedicine mode of the present invention;

Fig. 3 is a flow chart of the method for rehabilitation training in the telemedicine mode of the present invention.

Among them, A, smart insole; 10, floor layer; 20, functional layer; 21, front section; 22, middle section; 23, rear section; 30, cover layer; 40, pressure sensor; 51, control circuit board ;52, lithium battery module; 53, bluetooth module; 54, alarm; 55, pressure acquisition interface; 56, charging interface; 60, user smart phone; 70, remote computer;

detailed description

Below in conjunction with accompanying drawing and embodiment, the specific embodiment of the utility model is described in further detail. The following examples are used to illustrate the utility model, but not to limit the scope of the utility model.

Embodiment one

Referring to Figures 1 to 3, as shown in the illustrations therein, a smart insole for rehabilitation training in telemedicine mode, the smart insole A includes a base layer 10, a functional layer 20 and a cover layer arranged sequentially from bottom to top 30. The functional layer 20 includes a front section 21, a middle section 22, and a rear section 23 arranged sequentially from front to back. The front section 21 corresponds to the position of the sole of the foot, the middle section 22 corresponds to the position of the arch of the foot, and the rear section 23 corresponds to the position of the heel. Correspondingly, according to the shape of the sole of the foot and the law of force on the sole of the foot when walking, 7 sensors are arranged on the functional layer, of which 4 are on the front side, 3 are on the back side, and the middle section 22 is a data collection box. The control circuit board 51, the lithium battery module 52 and the Bluetooth module 53, the control circuit board 51 communicates with each pressure sensor 40 to collect the force sequence, pressure value, force frequency and force times of each pressure sensor 40, and then generate a patient training record, the control circuit board 51 communicates with a user's smart phone 60 through the bluetooth module 53 to send the training record to the user's smart phone 60, and the user's smart phone 60 is also connected to a remote computer 70 through a wireless network communication, so as to obtain data from the remote computer respectively. 70 receives training programs, sends training records to remote computer 70, and displays training programs and training records.

In another implementation manner, the user's smart phone 60 may also be a user's computer.

In another embodiment, the lithium battery module 52 may also be other batteries, such as nickel-cadmium batteries.

In another embodiment, the bluetooth module 53 can also be other wireless modules, such as GPRS, 3G, 4G network.

In another embodiment, the user's smart phone 60 also transmits data between the wristband 80 worn on the patient's wrist and the control circuit board 51, so as to realize short-distance data transmission.

In another embodiment, the control circuit board 51 also receives the training plan from the user's smart phone 60, and an alarm 54 is also built in the above-mentioned data collection box, and the control circuit board 51 controls and connects the alarm 54 to realize that the training does not match the training plan. alarm when.

In another embodiment, the above-mentioned data acquisition box is also provided with a pressure acquisition interface 45 and a charging interface 46, the control circuit board 51 is wired with each pressure sensor 40 through the pressure acquisition interface 45, and the lithium battery module 52 is charged through the charging interface 46 .

In another embodiment, the part of the cover layer corresponding to the position of the front section 21 and the rear side section 23 is made of rigid material, and the part of the cover layer corresponding to the position of the middle section 22 is made of elastic material, so that the data acquisition box is shockproof Protect.

The following is a method for rehabilitation training in telemedicine mode, using the above smart insole, including the following steps:

S1, check whether there is patient information through the doctor's smart phone 90 or remote computer 70: if there is patient information, then directly enter S2, if there is no patient information, then create new patient information, and then enter S2;

S2, check whether there is a training plan through the doctor's smart phone 90 or remote computer 70, if there is a training plan, then further judge whether it is necessary to modify the training plan, if no modification is required, then directly enter S3, if necessary, after modifying the training plan, Then enter S3, if there is no training plan, make a training plan, and then enter S3;

S3. Send the training plan to the remote computer 70 through the doctor's smart phone 90 and then to the user's smart phone 60, or directly send the training plan to the user's smart phone 60 through the remote computer 70, and the patient checks it and enters S4;

S4, the patient carries out rehabilitation training according to the training plan, and each pressure sensor 40 collects the stress sequence, pressure value, frequency and stress times of each stress point of the insole, and then converts it into a voltage signal and transmits it to the control circuit board 51 to control the circuit board 51 converts the voltage signal into a corresponding digital quantity, and enters S5;

S5, by controlling the circuit board 41 to judge whether this training is over, if this training is over, then generate this training record and enter S6, and further judge whether the number of training times has been reached, if the total number of times of training is reached, then end the rehabilitation training, If the total number of training times is not reached, return to S4, if the training is not over, return to S4;

S6, upload the training record to the user's smart phone 60 through the control circuit board 41, the patient checks it, and enters S7;

S7, upload the training record to the remote computer 70 through the user's smart phone 60, and enter S8;

S8. The doctor logs in to check and analyze the patient's training records, give guidance, and adjust the training plan if necessary.

In another embodiment, S-a is also set between S3 and S4, S-a: use the user's smart phone 60 or the control circuit board 51 to judge whether the training time is reached, if the training time is reached, then directly enter S4, if the training time is not reached , then cycle through S-a.

In another embodiment, S-b is also arranged between S3 and S4, S-b: the training plan is transmitted to the control circuit board 51 through the user's smart phone 60, and S4 is entered, and S-c is also arranged between S4 and S5, S-c: passed The control circuit board 51 judges whether the training is correct, if the training is correct, then directly enters S5, and if the training is incorrect, reports to the police, and then enters S5.

The above is the description of the embodiments of the present utility model. Through the above description of the disclosed embodiments, those skilled in the art can realize or use the present utility model. Various modifications to these embodiments will be readily apparent to those skilled in the art, and the general principles defined herein may be implemented in other embodiments without departing from the spirit or scope of the invention. Therefore, the present invention will not be limited to these embodiments shown herein, but will conform to the widest scope consistent with the principles and novel features disclosed herein.

Claims (7)

1. An intelligent insole for rehabilitation training under a telemedicine mode, characterized in that, the intelligent insole includes a functional layer, and the functional layer includes a front section, a middle section and a rear section arranged in sequence from front to back, so The front section corresponds to the position of the sole of the foot, the middle section corresponds to the position of the arch of the foot, the rear section corresponds to the position of the heel, and multiple stress points of the front section and the rear section are respectively arranged with multiple A pressure sensor, the middle section is provided with a data acquisition box, a control circuit board and a battery module are built in the data acquisition box, and the control circuit board communicates with each pressure sensor to collect the stress sequence, pressure value, stress frequency, and stress times, and then generate a training record for the patient. The control circuit board communicates with a user smart device to send the training record to the user smart device. The user smart device communicates with a telemedicine center to receive training plans from the telemedicine center, send training records to the telemedicine center, and display training plans and training records. 2. The intelligent insole according to claim 1, wherein the control circuit board also receives the training plan from the user's smart device, and an alarm is also built in the data collection box, and the control circuit board controls The alarm is connected to alarm when the training does not match the training plan. 3. The smart insole according to claim 1, wherein a wireless module is built in the data collection box, and the control circuit board transmits data with the user's smart device through the wireless module. 4 . The smart insole according to claim 3 , wherein the user smart device also transmits data between the wristband worn on the patient's wrist and the control circuit board. 5. according to the described intelligent insole of claim 1, it is characterized in that, described data acquisition box is provided with pressure acquisition interface and charging interface, and described control circuit board is wired with each pressure sensor through described pressure acquisition interface, and described battery The module is charged through the charging interface. 6. The smart insole according to claim 1, characterized in that, the smart insole further comprises a base layer and a cover layer respectively sandwiched and arranged on the lower side and the upper side of the functional layer. 7. The smart insole according to claim 6, characterized in that, the part of the cover layer corresponding to the position of the front side segment and the position of the rear side segment is made of rigid material, and the part of the cover layer corresponding to the position of the middle segment Parts are made of elastic material.