CN110353633A - A kind of wearable product - Google Patents

Abstract

The present invention provides a wearable product, which includes a wearable carrier, on which a signal receiving unit, a vibration conversion unit, and a vibration sensing unit are arranged, and also includes an audio playback unit and a signal acquisition and processing unit. This product can be worn on one or some parts of the body, and can monitor the possibility of abnormalities such as lesions in the parts of the user's body to be monitored, so as to warn the user for further health checks, realize early detection and early treatment of diseases, and avoid Delay on illness.

Description

a wearable product

technical field

The invention belongs to the field of wearable technology, and in particular relates to a wearable product.

Background technique

With the development of social science and technology, people pay more and more attention to their own health status, but the "hospital-centered" medical resources are limited and cannot meet people's growing needs for health diagnosis. In addition, the most dangerous part of many diseases is that they are not detected in time, which leads to untimely treatment and further pathological changes.

For example, the mammary gland is an exocrine organ regulated by various hormones, and some pathological changes may occur due to the interference of various factors, leading to mammary gland diseases. Breast disease is a common and frequently-occurring disease in women, and one of the main diseases that endanger women's physical and mental health. According to the incidence data of breast cancer from the National Cancer Center and the Bureau of Disease Control and Prevention of the Ministry of Health, the incidence of breast cancer in the national tumor registration area ranks first among female malignant tumors. Breast cancer has become a major public health problem in the current society. If it is not found and treated in time, the breast disease will further develop. For example, if breast fibroids and breast cysts are not detected and treated in time, they may lead to cancer and develop into breast cancer. According to the statistics of authoritative health organizations, if breast cancer is detected and treated in time, the success rate of breast-conserving surgery is high, and the treatment effect is good. More than 90% of patients can obtain long-term cure, and the treatment cost is low; Breast surgery is curative, and even with mastectomy, the mortality rate is high and expensive. Therefore, early detection and timely treatment of breast cancer are very important.

Therefore, early detection of the disease is crucial. However, at present, the professional equipment of medical institutions is too large to be carried, and cannot record and monitor the health status changes of various parts of the user's body in real time. Wearable electronic devices for early health monitoring also face a huge market gap.

Contents of the invention

In view of the above technical status, the present invention aims to provide a wearable product that can be used for health monitoring of body parts.

In order to achieve the above-mentioned technical purpose, the present invention converts audio electrical signals into mechanical vibration waves with a frequency of 20-20000 Hz to act on the parts of the body to be monitored. Studies have shown that the essence of sound is a mechanical vibration wave with a frequency of 20-20000Hz, which can provide comfortable and healthy massage for various parts of the body, promote cell activity, and enhance blood circulation. The mechanical vibration wave is transmitted through the part of the body to be monitored, and the acoustic impedance and other data of the biological tissue are obtained by monitoring the transmission process of the mechanical vibration in the biological tissue, and then compared with the data of the healthy biological tissue to obtain the abnormality of the biological tissue such as pathological changes possibility, so as to alert the user to further check the site, so as to achieve early prevention, early detection, and early treatment of diseases.

The technical solution of the present invention is: a wearable product, which can be worn on certain or certain parts of the body, and is characterized in that it includes a wearable carrier, an audio playback unit and a signal acquisition and processing unit; Signal receiving unit, vibration converting unit and vibration sensing unit;

The signal receiving unit receives the audio electrical signal generated by the audio playback unit;

The vibration conversion unit receives the audio electrical signal from the signal receiving unit and converts it into a mechanical vibration signal to act on the part of the body to be monitored;

The vibration sensing unit receives mechanical vibration signals passing through the parts of the body to be monitored and converts them into electrical signals;

The signal acquisition and processing unit receives and processes the electrical signal to obtain the physical parameter value transmitted by the mechanical vibration signal in the biological tissue at the site to be monitored, and compares it with the reference value of the healthy biological tissue at the site.

The reference value refers to the physical parameter value transmitted by the mechanical vibration signal in the healthy biological tissue at the same site as the site to be monitored. Physical parameters include, but are not limited to, changes in frequency of vibration waves, changes in amplitude of vibration waves, acoustic impedance, speed of sound, and the like. The reference value can be obtained from the reported literature, or obtained from the analysis of multiple groups of health big data.

As an implementation, the signal acquisition and processing unit receives and processes the electrical signal, and then uses a certain algorithm program to calculate the processed electrical signal and the audio signal generated by the audio playback unit to obtain the mechanical vibration The value of the physical parameter by which the signal is transmitted in the biological tissue at the site to be monitored.

The audio playback unit is used to generate audio electrical signals, and may be electronic equipment such as music players, mobile phones, and computers.

The audio playback unit can be set on the wearable carrier, or can be separated from the wearable carrier.

The signal receiving unit receives the electrical audio signal from the audio playing unit through wireless communication or wired communication. The signal receiving unit may be integrated in the vibration converting unit. As an implementation manner, the vibration conversion unit is connected to the audio playback unit through an audio plug.

The one or some parts of the body include, but are not limited to, one or more parts of the chest, abdomen, head, waist, etc.

The vibration conversion unit converts the audio electric signal into a mechanical vibration wave with a frequency of 20 Hz-20000 Hz, and its type is not limited, it may be a piezoelectric induction vibration unit or an electromagnetic induction vibration unit.

Preferably, the vibration unit is a flexible unit, so as to increase user comfort and the like.

Preferably, the thickness of the vibration unit is less than 1 cm, preferably less than or equal to 0.5 cm.

Preferably, the vibration conversion unit is detachable, for example, it can be disassembled by magnetic attraction, so that it can be easily disassembled from the wearable carrier.

The wearable carrier includes, but is not limited to, bras, vests, abdominal belts, belts, hats, patches and the like.

The signal acquisition and processing unit may receive the electrical signal through wired transmission, or may receive the electrical signal through wireless transmission.

The signal acquisition and processing unit may be arranged on the wearable carrier. As a preference, the signal acquisition and processing unit is detachable, for example, it can be disassembled by magnetic attraction, so that it is convenient to carry out from the wearable carrier. disassembly. The signal collection and processing unit can also be separated from the wearable carrier as an independent unit. The signal acquisition and processing unit can be integrated into smart display terminals such as mobile phones, tablets, and smart watches.

Compared with the prior art, the present invention has the following beneficial effects:

(1) The present invention transmits the soothing and rhythmic audio electrical signal from the audio playback unit to the vibration conversion unit through the receiving unit, and converts it into mechanical vibration with a frequency of 20Hz-20000Hz through the vibration conversion unit, and the mechanical vibration acts on the user's body Various parts can activate body cells, promote cell activity, enhance blood circulation, lift skin, etc.;

(2) At the same time, the mechanical vibration in the present invention can be used for health monitoring of the parts to be monitored, specifically as follows:

The vibration conversion unit is arranged at one end of the part to be monitored, and the vibration sensing unit is arranged at the other end; when the mechanical vibration passes through the part to be monitored of the body, it is transmitted to the vibration sensing unit, and the vibration sensing unit converts it into an electrical signal, and then Transmission to the signal acquisition and processing unit, the signal acquisition and processing unit processes the electrical signal to obtain the physical parameters of the mechanical vibration signal transmitted in the biological tissue of the site to be monitored, and compares it with the reference value of the healthy biological tissue at the site , if the two are basically the same, it is predicted that there is no abnormality in the site to be monitored, and if there is a difference between the two, it is predicted that there may be abnormalities such as lesions in the biological tissue of the site to be monitored, thereby warning the user to perform further health checks, so early detection of diseases can be achieved , Early treatment, to avoid the delay of the disease.

(3) The present invention embeds the vibration transducer and the vibration sensor into the wearable carrier, so that the user can perform self-check in real time and conveniently, which helps to improve the early detection rate of abnormalities such as lesions, thereby improving the cure rate.

(4) In the present invention, the audio file from the audio playback unit can be selected according to the user's needs, and the vibration frequency of the mechanical vibration signal obtained after the vibration conversion unit is adjusted along with the audio signal.

Description of drawings

Fig. 1 is a schematic structural view of a female bra in Example 1 of the present invention.

Fig. 2 is a schematic structural view of the sports vest in Embodiment 3 of the present invention.

Fig. 3 is a schematic structural view of the underwear patch in Example 4 of the present invention.

Detailed ways

The present invention will be further described in detail below in conjunction with the embodiments and the accompanying drawings. It should be noted that the following embodiments are intended to facilitate understanding of the present invention, but do not limit it in any way.

The reference signs in Fig. 1-3 are: 1. vibration conversion unit; 2. vibration sensing unit; 3. signal receiving unit; 4. signal acquisition and processing unit; 5. wearable carrier-bra; 6. wearable carrier- Sports vest.

Example 1:

In this embodiment, the wearable carrier is a women's bra 5 , the schematic diagram of which is shown in FIG. 1 . As shown in Figure 1, a vibration conversion unit 1 and a vibration sensing unit 2 are arranged inside each cup of the bra, and the vibration frequency of the vibration conversion unit 1 can be adjusted in the range of 20Hz-20000Hz. After the user wears the bra, the vibration conversion unit is located at the upper breast position of each breast, and the vibration sensing unit is located at the lower breast position of each breast. Each vibration conversion unit 1 is connected to the signal receiving unit 3 through wires. The audio playback unit is arranged outside the bra, and the signal receiving unit 3 is connected with the audio playback unit through wireless signal communication methods such as bluetooth.

When using, the details are as follows:

(1) The external audio playback unit broadcasts and generates an audio electrical signal A, which is transmitted to the signal receiving unit 3 through wireless communication such as Bluetooth, and then transmitted to the vibration conversion unit 1 through a wire, and the vibration unit 1 transmits the audio electrical signal A A is converted into mechanical vibration A directly acts on the user's breast;

(2) The mechanical vibration wave A is transmitted to the vibration sensor 2 through the biological tissue of the user's breast, and the vibration sensor 2 converts it into an electrical signal A and transmits it to the signal acquisition and processing unit 4 through a wire; the signal acquisition and processing unit 4 receives the electrical signal A and process, and then use the algorithm program to calculate the processed electrical signal A and the audio signal A generated by the audio playback unit, to obtain the physical parameter value of the mechanical vibration A transmitted in the biological tissue of the breast;

(3) Compare the obtained physical parameter values with the reference values. If the two parameter values are basically the same, it is predicted that there is no abnormality in the user's breasts. If there is a difference between the two parameter values, it is predicted that there may be abnormalities in the user's breasts, for example Breast hyperplasia, nodules, or cancerous lesions exist on the transmission path, thereby alerting users to further breast health checks to avoid delaying the disease.

The reference value refers to the physical parameter value describing the transmission of the mechanical vibration wave A in the non-abnormal breast biological tissue, including the change of vibration frequency, change of amplitude, transmission time, acoustic impedance, sound velocity and other parameters. The reference value can be obtained from reported academic literature or from the analysis of multiple groups of health big data.

In this embodiment, the external audio playback unit may be an electronic device such as a music player, a mobile phone, or a computer, and is used for generating audio signals.

In this embodiment, the vibration conversion unit may be an electromagnetic induction vibration conversion unit, or a piezoelectric vibration conversion unit.

Example 2:

In this embodiment, the structure of the bra is basically the same as that in Embodiment 1, the difference is that the vibration sensing unit 2 is connected to the signal acquisition and processing unit 4 through wireless communication. The signal acquisition and processing unit 4 is separated from the bra as an independent unit, and the signal acquisition and processing unit can be integrated in smart display terminals such as mobile phones, tablets, and smart watches.

Example 3:

In this embodiment, the wearable carrier is a sports vest 6, and its structural diagram is shown in Figure 2. The sports vest is located at the chest position of the human body and is provided with 2 vibration conversion units 1 and 2 vibration sensing units 2, and each vibration conversion unit 1. The vibration frequency can be adjusted in the range of 20Hz-20000Hz. After the user wears the sports vest, the vibration conversion unit 1 is located at the upper end of each side of the chest, and the vibration sensing unit 2 is located at the lower end of each side of the chest. Each vibration conversion unit 1 is connected to the signal receiving unit 3 through wires. The audio playback unit is arranged outside the sports vest, and the signal receiving unit 3 is connected with the audio playback unit through wireless signal communication methods such as bluetooth.

When using, the details are as follows:

(1) The external audio playback unit broadcasts and generates an audio electrical signal A, which is transmitted to the signal receiving unit 3 through wireless communication such as Bluetooth, and then transmitted to the vibration conversion unit 1 through a wire, and the vibration unit 1 transmits the audio electrical signal A A is converted into mechanical vibration A directly acts on the user's chest;

(2) The mechanical vibration wave A is transmitted to the vibration sensor 2 through the biological tissue of the user's chest, and the vibration sensor 2 converts it into an electrical signal A and transmits it to the signal acquisition and processing unit 4 through a wire; the signal acquisition and processing unit 4 receives the electrical signal A and processed to obtain the physical parameter value of mechanical vibration A transmitted in the biological tissue of the chest.

(3) Compare the obtained physical parameter values with the reference values. If the two parameter values are basically the same, it is predicted that there is no abnormality in the user's chest. If there is a difference between the two parameter values, it is predicted that the user's chest may have abnormalities, for example There are nodules or cancerous lesions on the transmission path, thereby alerting users to further health checks on the chest to avoid delaying the disease.

The reference value refers to the physical parameter value describing the transmission of the mechanical vibration wave A in the chest biological tissue without abnormality, including the change of vibration frequency, change of amplitude, transmission time, acoustic impedance, sound velocity and other parameters. The reference value can be obtained from reported academic literature or from the analysis of multiple groups of health big data.

In this embodiment, the external audio playback unit may be an electronic device such as a music player, a mobile phone, or a computer, and is used for generating audio signals.

In this embodiment, the vibration conversion unit may be an electromagnetic induction vibration conversion unit, or a piezoelectric vibration conversion unit.

Example 4:

In this embodiment, the wearable carrier is an underwear patch, and its structural schematic diagram is shown in Figure 3. It consists of a patch A and a patch B. The A patch has a built-in vibration conversion unit 1 and a signal receiving unit 3, and the B patch has a built-in Vibration sensing unit 2 and signal acquisition and processing unit 4.

The vibration frequency of the vibration conversion unit 1 can be adjusted in the range of 20Hz-20000Hz.

The vibration converting unit 1 is connected with the signal receiving unit 3 through wires. The vibration sensing unit 2 is connected to the signal acquisition and processing circuit 4 through wires. The audio playback unit is arranged outside the bra, and the signal receiving unit 3 is connected with the audio playback unit through wireless signal communication methods such as bluetooth.

The A patch and the B patch can be installed on the underwear carrier. The underwear carrier is not limited, and the installation method is not limited. It can be magnetic adsorption or other installation methods. Preferably, the A patch and the B patch can also be detached from the underwear carrier. Alternatively, the A patch and the B patch do not require an underwear carrier, and the user can directly stick the A patch on one end of a certain part of the body, and stick the B patch on the other end of a certain part of the body.

For example, the user sticks the A patch on the upper end of one breast or installs it on the underwear carrier and sticks it on the upper end of one breast, and sticks the B patch on the lower end of the same side breast or installs it on the underwear carrier and sticks it on the same side breast. lower end.

When using, the details are as follows:

(1) The external audio playback unit broadcasts and generates an audio electrical signal A, which is transmitted to the signal receiving unit 3 through wireless communication such as Bluetooth, and then transmitted to the vibration conversion unit 1 through a wire, and the vibration unit 1 transmits the audio electrical signal A A is converted into mechanical vibration A directly acts on the user's breast;

(2) The mechanical vibration wave A is transmitted to the vibration sensor 2 through the biological tissue of the user's breast, and the vibration sensor 2 converts it into an electrical signal A and transmits it to the signal acquisition and processing unit 4 through a wire; the signal acquisition and processing unit 4 receives the electrical signal A and processed to obtain the physical parameter value transmitted by the mechanical vibration A in the biological tissue of the breast;

(3) Compare the obtained physical parameter value with the reference value. If the two parameter values are basically the same, it is predicted that there is no abnormality in the user's chest. If there is a difference between the two parameter values, it is predicted that the user's breast may have an abnormality, for example Breast hyperplasia, nodules, or cancerous lesions exist on the transmission path, thereby alerting users to further breast health checks to avoid delaying the disease.

The reference value refers to the physical parameter value describing the transmission of the mechanical vibration wave A in the non-abnormal breast biological tissue, including the change of vibration frequency, change of amplitude, transmission time, acoustic impedance, sound velocity and other parameters. The reference value can be obtained from reported academic literature or from the analysis of multiple groups of health big data.

In this embodiment, the external audio playback unit may be an electronic device such as a music player, a mobile phone, or a computer, and is used for generating audio signals.

In this embodiment, the vibration conversion unit may be an electromagnetic induction vibration conversion unit, or a piezoelectric vibration conversion unit.

The embodiments described above have described the technical solutions of the present invention in detail. It should be understood that the above descriptions are only specific embodiments of the present invention, and are not intended to limit the present invention. All done within the principle scope of the present invention Any modification, supplement or substitution in a similar manner shall be included within the protection scope of the present invention.

Claims (10)

1. A wearable product, which can be worn on one or some parts of the body, is characterized in that it includes a wearable carrier, an audio playback unit and a signal acquisition and processing unit; The wearable carrier is provided with a signal receiving unit, a vibration converting unit and a vibration sensing unit; The signal receiving unit receives the audio electrical signal generated by the audio playback unit; The vibration conversion unit receives the audio electrical signal from the signal receiving unit and converts it into a mechanical vibration signal to act on the part of the body to be monitored; The vibration sensing unit receives mechanical vibration signals passing through the parts of the body to be monitored and converts them into electrical signals; The signal acquisition and processing unit receives and processes the electrical signal to obtain the physical parameter value transmitted by the mechanical vibration signal in the biological tissue at the site to be monitored, and compares it with the reference value of the healthy biological tissue at the site. 2. The wearable product according to claim 1, characterized in that: the audio playback unit is arranged on the wearable carrier, or is separated from the wearable carrier; Preferably, the audio playback unit is one or more of a music player, a mobile phone, and a computer. 3. The wearable product according to claim 1, characterized in that: the signal receiving unit is integrated in the vibration converting unit. 4. The wearable product according to claim 1, wherein the vibration conversion unit is a piezoelectric induction vibration unit or an electromagnetic induction vibration unit. 5. The wearable product according to claim 1, characterized in that: the vibration conversion unit is a flexible unit; Preferably, the thickness of the vibration conversion unit is less than 1 cm, preferably less than or equal to 0.5 cm; Preferably, the vibration conversion unit is detachable. 6. The wearable product according to claim 1, characterized in that: the signal acquisition and processing unit is set on the wearable carrier, or is separated from the wearable carrier; Preferably, the signal acquisition and processing unit is integrated in smart display terminals such as mobile phones, tablets, and smart watches. 7. The wearable product according to claim 1, wherein the wearable carrier includes one of bras, vests, abdominal belts, belts, hats, and patches. 8. The wearable product according to claim 1, wherein the certain or some parts of the body include one or more parts of the chest, abdomen, head, and waist. 9. The wearable product according to claim 1, wherein the physical parameters include one or concentration of vibration frequency change, vibration amplitude change, acoustic impedance, and sound velocity. 10. The wearable product according to any one of claims 1 to 9, characterized in that: the signal acquisition and processing unit receives and processes the electrical signal, and then uses a certain algorithm program to convert the processed electrical signal to The electrical signal is calculated with the audio signal generated by the audio playback unit to obtain the physical parameter value of the mechanical vibration signal transmitted in the biological tissue of the site to be monitored.