CN111712026A - A kind of intelligent light-emitting clothing, fitness and entertainment equipment and alert monitoring equipment - Google Patents

Abstract

The invention provides an intelligent light-emitting clothing, comprising a clothing body, a light-emitting unit, an elastic strain sensing unit and a signal processing unit are arranged on the clothing body; under the action of stress, the elastic strain sensing unit stretches, compresses, bends, etc. Deformation, the electrical signal changes, the signal processing unit collects and processes the electrical signal, obtains the deformation information, and obtains the control command corresponding to the deformation information with reference to the database, the control command is used to control the light-emitting unit, and realizes and emits light. The interaction of the unit increases the function, interest and visual effect of the clothing, which can be used for fitness and entertainment equipment, and can also be used for external alert monitoring equipment.

Description

A kind of intelligent light-emitting clothing, fitness and entertainment equipment and alert monitoring equipment

technical field

The invention belongs to the technical field of clothing and intelligent equipment, and in particular relates to an intelligent light-emitting clothing, fitness and entertainment equipment and warning monitoring equipment.

Background technique

In recent years, wearable electronic technology has received more and more attention. Currently, wearable electronics that have been developed and researched include smart watches, continuous medical monitors, fitness monitors, and clothing with environmental sensors.

As one of wearable electronic products, smart clothing "seamlessly combines" clothing with microelectronic devices, providing a variety of interactive functions, improving the intelligence and fun of clothing, and bringing convenience to the wearer.

SUMMARY OF THE INVENTION

The invention provides an intelligent light-emitting clothing, which can realize the interaction with the light-emitting unit, increase the function, interest and visual effect of the clothing, and can also realize visual monitoring of external stress.

The technical scheme of the present invention is: an intelligent light-emitting clothing, comprising a clothing body, characterized in that: a light-emitting unit, an elastic strain sensing unit and a signal processing unit are arranged on the clothing body;

Under the action of stress, the elastic strain sensing unit is deformed by stretching, compression, bending, etc., and its electrical signal changes. The signal processing unit collects and processes the electrical signal, obtains the deformation information, and obtains the deformation information with reference to the database. a control instruction corresponding to the information, the control instruction is used to control the light-emitting unit;

The database stores the correspondence between the deformation information and the control instructions.

In the present invention, elasticity refers to the property that deformation such as bending, stretching, and compression can occur under the action of external force, and it has a certain shape recovery ability when the external force is removed.

The material of the garment body is not limited. In consideration of wearing comfort and fit with the body, a soft and elastic material is preferred.

The elastic strain sensor is not limited, including capacitive elastic strain sensor, inductive elastic strain sensor, resistive elastic strain sensor, and the like. The electrical signal includes capacitance resistance, inductance, resistance and the like.

The shape of the light-emitting unit is not limited, including strip shape, tube shape, bulb shape and the like.

The light-emitting principle of the light-emitting unit is not limited, including electroluminescence, photoluminescence, and the like.

The light-emitting material of the light-emitting unit is not limited, including LED lamp beads, flexible OLED light-emitting strips, and phosphors.

As an implementation manner, the light-emitting unit is in the shape of a tube, the inner wall of the tube is coated with fluorescent powder, and a light-emitting diode that can excite the fluorescent powder to emit light is arranged in the tube. Preferably, the phosphors have different emission wavelengths, and can emit different colors when subjected to excitation waves of the light-emitting diodes.

Preferably, the light-emitting unit has elasticity and is mainly composed of an elastic carrier and a light-emitting material. As an implementation method, the elastic carrier has light transmittance, and its material can be one or more of thermoplastic elastomer (TPE), thermoplastic polyurethane elastomer rubber poly (TPU), high molecular polymer resin, silica gel, and rubber. .

The elastic strain sensor can be arranged on the garment body by means of bonding, heat pressing, sewing or the like.

The stress source is not limited, including the stress caused by the wearer's body movement to the elastic strain sensor, such as the bending stress caused by the wearer's joint bending action, the tensile stress caused by the stretching action, and the pressing action. compressive stress, etc.; also includes external stress, such as bending stress, tensile stress and compressive stress from the outside world, not the wearer.

The connection method between the light-emitting unit and the garment body is not limited, including one or more of methods such as bonding, hot pressing, and sewing. As an implementation manner, the light-emitting unit is connected to the textile material by one or several methods of bonding, heat pressing, sewing, etc., and then the textile material is sewn on the garment body.

The connection method between the elastic strain sensor and the garment body is not limited, including one or more of methods such as bonding, hot pressing, and sewing. As an implementation manner, the elastic strain sensor is connected to the textile material by one or more of methods such as bonding, hot pressing, sewing, etc., and then the textile material is sewn on the garment body.

The number of the elastic strain sensors is not limited, and they can be combined in series or in parallel.

The control instruction is used to control the light-emitting state of the light-emitting unit, including one or more of the opening and closing of the light-emitting unit, light-emitting mode, light-emitting color, light-emitting brightness, and the like.

Preferably, a touch sensor is also provided on the smart light-emitting clothing. When the conductor is in contact with the touch sensor, its electrical signal changes, which can be used as a light-emitting control switch of the light-emitting unit or a trigger switch of a certain light-emitting mode. Increase the visual effect of light, on the other hand, it can be used to warn of external interference or touch signals. The lighting mode may be a blinking mode, a fixed color mode, etc., such as a red light alarm mode, and the like.

The type of the touch sensor is not limited, and it can be a capacitive touch sensor, an inductive touch sensor, a resistive touch sensor, etc., and its capacitance, inductance, resistance, etc. will change after being in contact with a conductor.

As an implementation manner, the elastic strain sensing unit is disposed at the position of the garment body corresponding to the joint of the human body, and is used to detect the bending angle of the joint. The joints are not limited, and include one or more of shoulder joints, elbow joints, wrist joints, knee joints, lumbar vertebrae joints, and vertebral joints. In this case, the corresponding relationship between the bending angle of the joint and the control instruction of the light-emitting unit is stored in the database. In this case, the initial calibration is required to obtain the bending angle of the joint according to the electrical signal. The specific method is as follows:

The user wears the smart light-emitting clothing to become the wearer. First, the wearer does not perform joint bending action, the joint remains in a natural state, and the electrical signal of the elastic strain sensor is recorded, which is defined as the initial value; then, the wearer performs joint bending action to the When the joint is bent to the maximum amplitude, the electrical signal of the elastic strain sensor is recorded, which is defined as the full scale value; the corresponding relationship between the electrical signal value and the joint bending angle is obtained according to the initial value and the full scale value.

As an implementation manner, the light-emitting unit is composed of several sub-light-emitting units connected by wires. In order to increase the sense of design and interest, the sub-units form a certain pattern.

The elastic strain sensor structure is not limited. For example, when the elastic strain sensor is a capacitive elastic strain sensor, as an implementation manner, the elastic strain sensor is based on an elastic insulating material, and includes a first conductive layer, a second conductive layer, an elastic dielectric layer and an elastic package layer; the first conductive layer is located on the surface of the substrate, is composed of conductive liquid, conductive paste or conductive gel, and is connected to an external first electrode; the elastic dielectric layer has conductive insulation and is located on the surface of the first conductive layer; The second conductive layer is located on the surface of the elastic dielectric layer and is composed of conductive liquid, conductive paste or conductive gel, and is connected to the external second electrode; the elastic encapsulation layer has conductive insulation and is used to encapsulate the second conductive layer . Among them, the matrix material includes but is not limited to thermoplastic elastomer (TPE), thermoplastic polyurethane elastomer rubber poly (TPU), dimethylsiloxane (PDMS), aliphatic aromatic random copolyester (Ecoflex), silica gel, One or more of rubber, hydrogel, polyurethane, polyethylene octene co-elastomer (POE).

The material of the elastic encapsulation layer is not limited, including elastic polymer materials and the like. As a further preference, the elastic insulating layer adopts an elastic material with good bonding ability with the body material of the elastic garment, such as thermoplastic elastomer (TPE), thermoplastic polyurethane elastomer rubber poly (TPU), dimethylsiloxane ( One or more of PDMS), aliphatic aromatic random copolyester (Ecoflex), high molecular polymer resin, silica gel, rubber, hydrogel, polyurethane, polyethylene octene co-elastomer (POE).

The conductive liquid is not limited, such as liquid metal, conductive ink, and the like.

The conductive gel is not limited, such as graphite conductive gel, silver gel and the like.

The conductive paste is not limited, including graphene paste, mixed paste of conductive material and elastomer, and the like. The mixed slurry of conductive material and elastomer includes but not limited to the mixed slurry of liquid metal and elastomer, the mixed slurry of carbon powder and elastomer, the mixed slurry of carbon fiber and elastomer, the mixed slurry of graphene and elastomer materials, mixed slurry of metal powder and elastomer, etc.

The liquid metal refers to a metal conductive material that is liquid at room temperature, including but not limited to mercury, gallium indium alloy, gallium indium tin alloy, and one or more doped gallium indium alloys of transition metals and solid non-metallic elements alloys, gallium indium tin alloys, etc.

The first electrode is used for conductively connecting external devices, and its material is not limited, including metal material, conductive cloth, graphene, graphite conductive glue, silver glue, liquid metal, circuit board, and the like.

The second electrode is used for conductively connecting external devices, and its material is not limited, including metal material, conductive cloth, graphene, graphite conductive glue, silver glue, liquid metal, circuit board, and the like.

The control instructions are transmitted wirelessly or wiredly to the light-emitting unit. Wireless transmission includes but is not limited to one or more of ZigBee, Bluetooth, WIFI, GPRS, and the like.

Preferably, the circuit substrate of the signal processing unit is an elastic material, such as polyimide.

The power supply structure for powering one or more of the signal processing unit, the light-emitting unit and the elastic strain sensor is not limited, including a flexible battery.

The invention combines the clothing with the elastic strain sensing unit, the signal acquisition unit and the light emitting unit. When the wearer wears the smart clothing, when the wearer is under the action of external stress or the stress caused by human body movement, the elastic strain sensing unit stretches, The deformation will cause the electrical signal of the elastic strain sensor to change. The signal processing unit collects and processes the electrical signal to obtain the deformation information, which is obtained through the correspondence between the deformation information stored in the database and the control instructions of the light-emitting unit. The control instruction is transmitted to the light-emitting unit, and the light-emitting state of the light-emitting unit changes in response under the control of the control instruction to realize the interaction with the light-emitting unit. Compared with the prior art, the present invention has the following advantages:

(1) The smart clothing of the present invention can control the light-emitting state of the light-emitting unit through the body movement of the wearer, and can be used for dance entertainment and fitness exercise to increase interest and improve visual effects;

(2) The smart clothing of the present invention can control the light-emitting state of the light-emitting unit through the action of external stress, can be used for external interference monitoring, alert monitoring, etc., realizes the visual monitoring of external stress, and has good promotion value;

(3) The present invention can fit the elastic strain sensor to different positions of the wearer's body according to actual needs to detect the movement of the position, such as joint bending, muscle stretching or bending, touching objects or not, Affected by the pressure and other conditions, the light-emitting unit is controlled according to the deformation caused by the movement, so the detection content is extensive and the control methods are abundant.

Description of drawings

FIG. 1 is a schematic structural diagram of an intelligent light-emitting top in Embodiment 1 of the present invention.

FIG. 2 is a schematic structural diagram of the capacitive elastic strain sensor in FIG. 1 .

FIG. 3 is a schematic diagram of the arrangement of the elastic strain sensors in FIG. 1 .

FIG. 4 is a circuit schematic diagram of a capacitance detection module in a capacitive elastic strain sensor.

FIG. 5 is a schematic diagram of the internal structure of the light-emitting strip in Embodiment 1 of the present invention.

FIG. 6 is a schematic diagram of the arrangement of elastic strain sensors in Embodiment 3 of the present invention.

FIG. 7 is a schematic diagram of the internal structure of the light-emitting strip in Embodiment 4 of the present invention.

FIG. 8 is a schematic diagram of the internal structure of the light-emitting strip in Embodiment 5 of the present invention.

1-8 are: 1-jacket body; 2-light-emitting strip; 3-sleeve; 4-elastic strain sensing unit; 5-signal processing unit; 6-touch sensor; 7-elastic wire; 8-USB port; 9-Elastic insulating layer; 10-First conductive layer; 11-Elastic dielectric layer; 12-Second conductive layer; 13-Elastic packaging layer; 14-First electrode; 15-Second electrode; 16-LED lamp beads; 17-Current limiting resistor; 18-LED light-emitting strip electrode; 19-OLED flexible strip; 20-OLED flexible light-emitting strip electrode; 21-phosphor; 22-LED; 23-LED electrode.

Detailed ways

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

Example 1:

In this embodiment, as shown in FIG. 1 , the smart light-emitting top includes a top body 1 . A light-emitting unit 2 , an elastic strain sensing unit 4 , a touch sensor 6 and a signal processing unit 5 are arranged on the jacket body 1 .

The elastic strain sensing unit 4 is a capacitive elastic strain sensor, which is arranged at the position of the body of the jacket corresponding to the elbow joint, covering most of the positions of the two arms.

The touch sensor 6 is provided on the front chest of the jacket body.

The light-emitting unit 2 is composed of several light-emitting strips, which are arranged on the left arm, right arm, front chest and back of the jacket body. The front chest forms the letter "RH" shape, and the back forms the letter "W" shape.

The signal processing unit 5 is electrically connected to the light emitting unit 2 , the elastic strain sensing unit 4 and the touch sensor 6 through elastic wires 7 .

The jacket body 1 is also provided with a USB port 8 , which is connected to an external power source through an elastic wire 7 and can supply power to the light-emitting unit 2 , the signal processing unit 5 , the touch sensor 6 , and the elastic strain sensing unit 4 .

Under the action of stress, the elastic strain sensing unit undergoes deformation such as stretching, shrinking, bending, etc., and its electrical communication changes. The signal processing unit collects and processes the electrical signal, obtains the deformation information, and obtains the deformation information with reference to the database. Corresponding control instructions, the control instructions are used to control the light-emitting unit;

The database stores the correspondence between the deformation information and the control instructions.

In this embodiment, the jacket body is made of textile material, and the sleeves of the jacket body are made of thin elastic textile material, which is comfortable after wearing and can move freely.

In this embodiment, the elastic wire 7 is composed of elastomer and liquid metal, the elastomer is thermoplastic elastomer TPE, the liquid metal is GaInSn or GaIn alloy, the elastomer constitutes a hollow tube body, and the liquid metal is located in the hollow body of the tube body inside the cavity.

In this embodiment, as shown in FIG. 2 , the capacitive elastic strain sensor is composed of an elastic insulating layer 9 , a first conductive layer 10 , an elastic dielectric layer 11 , a second conductive layer 12 and an elastic encapsulation layer 13 . The elastic insulating layer 9 has conductive and insulating properties; the first conductive layer 10 is located on the surface of the elastic insulating layer 9, is composed of conductive cloth, and is connected to the external first electrode 14; the elastic dielectric layer 11 has conductive and insulating properties, and is located in the first conductive layer. 10 surface; the second conductive layer 12 is located on the surface of the elastic dielectric layer 11, is composed of conductive cloth, and is connected to the external second electrode 15; the elastic encapsulation layer 13 is used to encapsulate the second conductive layer.

In this embodiment, the elastic insulating layer, the elastic dielectric layer, and the elastic encapsulation layer are all selected from thermoplastic polyurethane elastomer rubber poly (TPU), the first conductive layer and the second conductive layer are conductive fibers, and the external first electrode 14 and the external The second electrodes 15 are copper sheets.

In this embodiment, the electrical conductivity of the conductive fibers is better than 3.8×10 ⁶ s/m.

In this embodiment, the circuit schematic diagram of the capacitance detection module in the capacitive elastic strain sensor is shown in FIG. 4 , which is used to detect the capacitance change when the capacitive elastic strain sensor is subjected to stress such as tension, bending, and compression.

In this embodiment, the signal processing unit adopts the digital capacitance chip PCAP01, which can directly read the capacitance value, and adopts STM32F103C8T6 for signal processing, thereby realizing high-precision and fast measurement.

In this embodiment, a battery on the signal processing unit or an external power supply can be used for power supply.

In this embodiment, the circuit substrate of the signal processing unit is polyimide.

In this embodiment, as shown in FIG. 3 , three capacitive elastic strain sensors are connected in series, and are connected to the sleeve 3 made of textile material by bonding, hot pressing or sewing, etc., and then the sleeve 3 is It is sewn on the sleeve part of the jacket body to integrate it with the jacket body.

In this embodiment, the light-emitting strip is connected to the top body by one or several methods of bonding, heat pressing, and sewing.

In this embodiment, the main light-emitting component of the light-emitting strip is the internal LED lamp beads, and the light-emitting principle is electroluminescence. The internal structure of the light-emitting strip is shown in FIG. , under the action of control instructions, it can emit four colors of light: red, blue, green and white.

When using the smart light-emitting top, firstly perform the initialization calibration of the elbow joint bending angle, the specific method is as follows:

The user wears the smart light-emitting top, and the USB port 8 is connected to an external power supply. First, the arms hang down naturally, and the capacitance value of each capacitive elastic strain sensor is recorded, which is defined as the initial value; then, the arms are bent to the maximum extent of the elbow joint, and the capacitance value of each capacitive elastic strain sensor is recorded, which is defined as Full scale value; according to the initial value and full scale value, the corresponding relationship between the capacitance value and the elbow joint bending angle is obtained.

In actual use, the change of the posture of the user's elbow causes the capacitance value of each capacitive elastic strain sensor to change. The signal processing unit receives the actual capacitance value of the elastic strain sensor and processes it according to the corresponding relationship, and obtains each hand The actual bending angle of the elbow joint is then referred to the database, where the corresponding relationship between the bending angle of the elbow joint and the control command is stored, and the control command corresponding to the actual bending angle of the elbow joint can be obtained.

In this embodiment, the correspondence between the bending angle of the elbow joint stored in the database and the control command is as follows:

After initial calibration, when the elbow joint of the left arm is bent, the light bar on the left arm glows, and the brightness of the light bar on the left arm is controlled by the bending angle of the elbow joint of the left arm, that is, the elbow joint of the left arm When the bending angle is bent from the natural sag to the maximum amplitude, the capacitance value of the elastic strain sensor at the left arm will reach the full scale value from the initial value. Bright;

After initial calibration, when the elbow joint of the right arm is bent, the light bar on the right arm glows, and the brightness of the light bar on the right arm is controlled by the bending angle of the elbow joint of the right arm, that is, the elbow joint of the right arm When the bending angle is bent from the natural sag to the maximum amplitude, the capacitance value of the elastic strain sensor at the right arm will reach the full scale value from the initial value. Bright;

After initial calibration, when the elbow joints of both arms are bent at the same time, the light-emitting strips on both arms and the light-emitting strips on the front and back are illuminated at the same time, and the light-emitting strips on the left arm and the light-emitting strips on the front chest are illuminated at the same time. It is controlled by the bending angle of the elbow joint of the left arm, and the brightness of the light bar on the right arm and the light bar on the back is controlled by the bending angle of the elbow joint of the right arm. That is, when the bending angle of the elbow joint of the left arm is bent from the natural sag to the maximum amplitude, the capacitance value of the elastic strain sensor at the left arm will reach the full scale value from the initial value, and the light-emitting strip on the left arm will emit light during this process. Linearly increasing, from the darkest to the brightest, and the brightness of the light-emitting strip on the chest increases linearly, from the darkest to the brightest; when the elbow joint of the right arm bends from the natural sag to the maximum amplitude, the The capacitance value of the elastic strain sensor will reach the full-scale value from the initial value. During this process, the luminous intensity of the light-emitting strip on the right arm increases linearly, from the darkest to the brightest, and the light-emitting strip on the back increases linearly, from Darkest to brightest.

In addition, when the human body or other conductors come into contact with the touch sensor, the light bar blinking pattern can be triggered.

Example 2:

In this embodiment, the structure of the smart light-emitting top is basically the same as that of the first embodiment, the difference is that no touch sensor is provided on the smart light-emitting top.

Example 3:

In this embodiment, the structure of the smart light-emitting top is basically the same as that of the first embodiment, the difference is that the structure of the capacitive elastic strain sensor is an array structure as shown in FIG. 6 .

Example 4:

In this embodiment, the structure of the smart light-emitting top is basically the same as that of the first embodiment, the difference is that the main light-emitting component inside the light-emitting strip is an OLED flexible strip. As shown in FIG. 7 , the flexible OLED light-emitting strip 19 and the flexible electrode 20 are formed. , compared with the partial flexibility of the light-emitting strip due to the inflexibility of the LED lamp beads in Example 1, this structure can realize the true flexibility of the light-emitting strip, and has the following advantages:

(1) Compared with the crystal layer of LED, the organic plastic layer of OLED is thinner, lighter and more flexible;

(2) OLED emits light more brightly than LED, and consumes less energy than LED;

(3) OLED light-emitting response speed is fast, and the response speed is faster than LED lamp beads when switching between different light-emitting modes;

(4) OLED has good luminous color and more delicate display.

Example 5:

In this embodiment, the structure of the smart light-emitting top is basically the same as that of embodiment 1, the difference is: compared with the electroluminescence in embodiments 1 and 2, the light-emitting principle of the light-emitting strip is photoluminescence; the light-emitting strip is tubular Structure, the main light-emitting components in the tube are shown in Figure 8, which are composed of phosphor 21, light-emitting diodes 22 and light-emitting diode electrodes 23. The preparation method is as follows:

First, the phosphor powder is evenly spread on the inner wall of the tube, and then a series of light-emitting diode chips that can excite the phosphor to emit light are connected in series inside the tube. When the phosphors with different emission wavelengths receive the excitation wave of the light-emitting diode, they can emit different color.

In this embodiment, a light-emitting diode capable of emitting near _- ultraviolet light is used, and the fluorescent powder _on the inner wall _of the tube is a fluorescent powder that can be excited by near _- ultraviolet light. Dy ³⁺ phosphor can emit white light, CaMoO ₄ :Eu ³⁺ phosphor is applied to the inner wall of the light-emitting strip on the back to emit red light, and SrZnO ₂ :Bi ³⁺ is applied to the tube wall of the light-emitting strip on the front chest Phosphors that emit blue light.

The above embodiments describe the technical solutions of the present invention in detail. It should be understood that the above are only specific embodiments of the present invention and are not intended to limit the present invention. Anything done within the scope of the principles of the present invention Any modifications, additions or substitutions in similar manners, etc., shall be included within the protection scope of the present invention.

Claims (19)

1. An intelligent light-emitting garment, comprising a garment body, characterized in that: a light-emitting unit, an elastic strain sensing unit and a signal processing unit are arranged on the garment body; Under the action of stress, the elastic strain sensing unit is deformed, and its electrical signal changes. The signal processing unit collects and processes the electrical signal, obtains the deformation information, and obtains the control command corresponding to the deformation information with reference to the database. The control instruction is used to control the light-emitting unit; The database stores the correspondence between the deformation information and the control instructions. 2. The smart light-emitting clothing according to claim 1, wherein the elastic strain sensor comprises a capacitive elastic strain sensor, an inductive elastic strain sensor and a resistive elastic strain sensor; Preferably, the electrical signal includes capacitance resistance, inductance and resistance. 3. The smart light-emitting clothing according to claim 1, wherein the shape of the light-emitting unit comprises one or more of a strip shape, a tube shape, and a bulb shape; Preferably, the light-emitting unit adopts electroluminescence or photoluminescence; Preferably, the light-emitting material of the light-emitting unit includes one or more of LED lamp beads, flexible OLED light-emitting strips, and phosphors. 4. The smart light-emitting clothing according to claim 1, wherein the light-emitting unit is in the shape of a tube, the inner wall of the tube is coated with fluorescent powder, and a light-emitting diode that can excite the fluorescent powder to emit light is arranged in the tube; Preferably, the phosphors have different emission wavelengths, and can emit different colors when subjected to excitation waves of the light-emitting diodes. 5. The smart light-emitting clothing according to claim 1, wherein the light-emitting unit has elasticity and is mainly composed of an elastic carrier and a light-emitting material; Preferably, the elastic carrier has light transmittance; Preferably, the elastic carrier material is one or more of thermoplastic elastomer, thermoplastic polyurethane elastomer rubber, high molecular polymer resin, silica gel, and rubber. 6 . The smart light-emitting clothing according to claim 1 , wherein the stress includes the stress caused to the elastic strain sensor when the wearer's body moves, and also includes the stress from the outside. 7 . 7. The smart light-emitting clothing according to claim 6, wherein the stress comprises bending stress, tensile stress and compressive stress. 8. The intelligent light-emitting garment according to claim 1, wherein the light-emitting unit and the garment body are arranged on the garment body by one or more of bonding, hot pressing and sewing; Preferably, the light-emitting unit is connected to the textile material by one or several methods of bonding, heat pressing and sewing, and then the textile material is sewn on the garment body. 9. The smart light-emitting clothing according to claim 1, wherein the elastic strain sensor is arranged on the clothing body by one or more of bonding, hot pressing and sewing; Preferably, the elastic strain sensor is connected to the textile material by one or several methods of bonding, heat pressing and sewing, and then the textile material is sewn on the garment body. 10 . The smart light-emitting clothing according to claim 1 , wherein the elastic strain sensor comprises a plurality of them, which are connected in series or in parallel. 11 . 11. The smart luminous clothing according to claim 1, wherein the control instruction is used to control the luminous state of the luminous unit, including one of opening and closing of the luminous unit, luminous mode, luminous color, luminous brightness, or several. 12. The smart light-emitting clothing as claimed in claim 1, wherein a touch sensor is arranged on the smart light-emitting clothing, and when the conductor is in contact with the touch sensor, its electrical signal changes, which acts as a light-emitting control switch of the light-emitting unit Or a trigger switch of some kind of lighting mode; The light-emitting mode includes a blinking mode and a fixed color mode. 13. The smart light-emitting clothing according to claim 12, wherein the touch sensor is one or more of a capacitive touch sensor, an inductive touch sensor, and a resistive touch sensor. 14. The smart light-emitting clothing according to claim 12, wherein the elastic strain sensing unit is arranged at the position of the clothing body corresponding to the joint of the human body, and is used to detect the bending angle of the joint; The corresponding relationship between the bending angle of the joint and the control instruction of the light-emitting unit stored in the database. 15. The smart light-emitting clothing according to claim 14, wherein the joints comprise one or more of shoulder joints, elbow joints, wrist joints, knee joints, lumbar joints, and vertebral joints. 16. The smart light-emitting clothing as claimed in claim 14, wherein when obtaining the bending angle of the joint according to the electrical signal, initialization calibration is required, and the specific method is as follows: The user wears the smart light-emitting clothing to become the wearer. First, the wearer does not perform joint bending action, the joint remains in a natural state, and the electrical signal of the elastic strain sensor is recorded, which is defined as the initial value; Then, the wearer performs joint bending action until the joint is bent to the maximum amplitude, and records the electrical signal of the elastic strain sensor, which is defined as the full-scale value; According to the initial value and the full scale value, the corresponding relationship between the electrical signal value and the bending angle of the joint is obtained. 17. The smart light-emitting clothing according to claim 1, wherein the light-emitting unit is composed of a plurality of sub-light-emitting units connected by wires; Preferably, the several subunits form a certain pattern. 18. A fitness and entertainment device comprising the smart light-emitting garment of any one of claims 1 to 17. 19. An alert monitoring device comprising the smart light-emitting garment of any one of claims 1 to 17.

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