CN117257278B - Intelligent monitoring method, device and electronic equipment for neck - Google Patents

Abstract

The invention provides an intelligent neck monitoring method and device and electronic equipment, and relates to the technical field of medical treatment. The neck support comprises a neck support body, wherein a neck state detection device and a neck guide device are arranged on the neck support body; the neck state detection device is used for collecting neck state data and judging the activity requirement of the neck; the neck guiding device is used for receiving the data sent by the neck state detecting device and correspondingly guiding the neck to move. The invention can obtain the neck movement requirement according to the neck state, and can protect the neck health by guiding the neck movement according to the neck movement requirement, correct the bad posture, and standardize the movement mode of the neck at the same time, thereby preventing the neck from being hurt due to improper neck movement.

Description

Intelligent monitoring method, device and electronic equipment for neck

Technical Field

The present invention belongs to the field of medical technology, and in particular relates to an intelligent monitoring method, device and electronic equipment for the neck.

Background Art

The cervical spine is made up of seven vertebrae connected by cartilaginous disks and supported by muscles, ligaments, and nerve tissue.

The lifestyle and working habits of modern society often lead to an increase in cervical spine diseases. Cervical pain is the most common cervical spine disease, mainly caused by damage or inflammation of the cervical joints, muscles, ligaments or soft tissues.

Neck and shoulder syndrome refers to pain, stiffness and discomfort in the neck and shoulder area. Long-term poor posture, such as working with the head down, using a computer, excessive use of mobile phones, etc., as well as factors such as mental tension, stress and lack of physical exercise, can lead to the occurrence of neck and shoulder syndrome.

Cervical disc herniation refers to the protrusion or detachment of cartilage tissue in the cervical disc, which may compress the surrounding nerve roots or spinal cord, causing symptoms such as neck pain, radiating pain, numbness and muscle weakness. Incorrect posture, repetitive neck movements, neck injuries and other factors may cause cervical disc herniation.

As we age, the structure of the cervical spine gradually degenerates, and cervical joint degeneration, bone hyperplasia, and intervertebral disc degeneration may occur. These changes may cause symptoms such as neck pain, stiffness, dizziness, and headaches.

The main function of a cervical collar is to provide stability and limit the range of motion of the neck, thereby helping to reduce further injury. Depending on the condition, different types of cervical collars may be used, such as a soft collar, a hard collar, or an adjustable collar.

The current neck brace design supports the neck while limiting its movement. Although the patient's neck may be restricted to a relatively correct posture, due to the limited range of motion, long-term use can easily cause neck muscle stiffness, which in turn leads to other potential problems.

If the neck is not active enough, you need to move your neck to ensure its health. However, how to move your neck is a problem that requires attention, because incorrect or excessive movement may cause neck injury, especially for people with neck diseases or neck injuries.

In summary, how to provide an intelligent neck brace that can guide the neck's movements appropriately according to different neck conditions is a technical problem that urgently needs to be solved.

Summary of the invention

The purpose of the present invention is to overcome the shortcomings of the prior art and provide an intelligent monitoring method, device and electronic device for the neck, including a neck support body, on which a neck state detection device and a neck guiding device are provided; the neck state detection device is used to collect neck state data and determine the activity requirements of the neck; the neck guiding device is used to receive data sent by the neck state detection device and guide the neck activities accordingly. The present invention can obtain the neck activity requirements according to the neck state, and guide the neck activities according to the neck activity requirements to protect the neck health.

The present invention provides an intelligent neck support, comprising a neck support body, on which a neck state detection device and a neck guiding device are arranged;

The neck state detection device is used to collect neck state data and determine the activity requirements of the neck; the neck guiding device is used to receive data sent by the neck state detection device and guide the neck activities accordingly.

Furthermore, the neck support body includes a plurality of support plates; the support plates include a plurality of rotatably connected sub-support plates; the rotation of the sub-support plates is controlled by the aforementioned neck guiding device to guide the movement of the neck.

Furthermore, the edge of the sub-support plate can be folded, and a convex portion is formed by the folded sub-support plate to contact the skin of the neck.

Furthermore, a massage structure is arranged on the side of the sub-support plate facing the skin, and the massage structure includes a plurality of rotatably connected blades.

Furthermore, the sub-support plate and/or the blades are wrapped with a soft bag.

Furthermore, a vibration structure capable of generating vibration is arranged on the sub-supporting plate.

Furthermore, the neck guiding device comprises an indicating structure which is telescopically arranged on the neck support body; the moving direction of the indicating structure corresponds to the direction in which the neck guiding device guides the neck movement.

Furthermore, the neck status detection device includes a camera assembly embedded in an opening structure provided on the neck support body.

The present invention provides an intelligent monitoring method for a neck using any of the above-mentioned intelligent cervical collars, the method comprising the following steps:

Step 1, collecting data on the neck state through a neck state detection device provided on the neck support body;

Step 2, determining the activity requirement of the neck according to the neck status data;

Step 3, when there is a need for movement, guide the neck movement through the neck guiding device provided on the neck support body.

The present invention provides an electronic device, which includes a processor and a memory, wherein the memory stores at least one instruction, at least one program, code set or instruction set, and the instruction, the program, the code set or the instruction set is loaded and executed by the processor to implement the steps of the intelligent monitoring method for the neck as described.

Due to the adoption of the above technical solution, the present invention has the following advantages and positive effects compared with the prior art, as an example:

The neck status detection device can collect neck status data and determine the neck's activity requirements; the neck guidance device can guide the neck's activities accordingly based on the neck's activity requirements, which helps prevent and correct bad neck postures and protect neck health. By guiding neck activities based on neck activity requirements, the neck's activity methods can be standardized to prevent injuries to the neck caused by improper neck activities.

The rotation of multiple sub-support plates against the neck skin can massage and scrape the neck skin, thereby achieving a massage effect, relieving neck discomfort, and promoting blood circulation. When the sub-support plates rotate, the embedded massage structure also rotates, contacts the neck area, and exerts multiple stimulation massage effects on the neck area.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is a schematic structural diagram of a neck collar body provided by the present invention.

FIG. 2 is a schematic structural diagram of a support plate provided by the present invention.

FIG. 3 is a schematic diagram of the folding process of the edge of the sub-pallet provided by the present invention.

FIG. 4 is a schematic structural diagram of a support plate provided with a massage structure provided by the present invention, which is another embodiment.

FIG. 5A is a schematic diagram of the structure of the indication structure provided by the present invention.

FIG. 5B is a schematic diagram of the structure of the indication structure provided by the present invention, which is another embodiment.

FIG6 is a schematic diagram of the structure of the indication structure provided by the present invention, which is another embodiment.

Description of Reference Numerals

Smart Neck Collar 100;

The neck support body 200 , the support plate 210 , the sub-support plate 211 , the protrusion 212 , the rotating connecting piece 213 ; the indicating structure 220 ; the massage structure 230 , and the blades 231 .

DETAILED DESCRIPTION

The technical solution disclosed in the present invention is described in detail below in conjunction with specific embodiments.

Techniques and methods known to those of ordinary skill in the relevant art may not be discussed in detail, but where appropriate, the techniques and methods should be considered part of the specification. In all examples shown and discussed herein, any specific value should be interpreted as merely exemplary and not as a limitation. Therefore, other examples of the exemplary embodiments may have different values.

The present invention provides an intelligent neck support, comprising a neck support body, on which a neck state detection device and a neck guiding device are arranged.

The neck state detection device is used to collect neck state data and determine the activity requirements of the neck. By way of example and not limitation, the neck state detection device includes a plurality of sensors to sense and measure parameters such as neck movement, posture or pressure.

Sensors include, but are not limited to, accelerometers, gyroscopes, and/or pressure sensors.

Specifically, as a neck state detection device, an accelerometer can be installed on the neck support body 200, and understand the movement of the neck by sensing the linear acceleration of the neck. For example, when the head tilts forward or backward, the accelerometer can detect the corresponding linear acceleration change of the neck.

The gyroscope can be used to sense the rotation or turning of the neck. By detecting changes in the angular velocity of the neck, the gyroscope can provide information about the neck's posture and rotation direction.

As a neck status detection device, the pressure sensor can be used to measure the contact pressure between the neck and the neck collar. By detecting the pressure distribution between the neck and the neck collar, the pressure conditions in different areas of the neck can be understood, thereby evaluating the neck posture and the support of the cervical spine.

In addition, the blood circulation of the neck skin can also be tested. When the neck is in a bad posture, the neck muscles may be compressed or restricted, thus affecting the blood circulation of the surrounding tissues.

By using suitable sensors or technologies, such as optical sensors or infrared imaging, blood flow to the skin of the neck can be monitored. If poor circulation is detected, it may mean that there is tension or discomfort in the neck.

The neck state detection device determines the activity requirement of the neck based on the collected neck state data.

For example, when the neck is in a bad posture or is under excessive pressure, or the blood circulation in the neck skin is poor, the neck status data collected by the neck status detection device will produce relevant parameter changes, which will be compared with the preset parameter ranges of a healthy neck. If it is not within the preset parameter range, it can be determined that the neck needs appropriate adjustment or support.

The neck state detection device obtains the activity requirements of the neck by analyzing the causes of parameter changes.

Specifically, when the neck leans to the left for a long time, the state data on both sides of the neck will produce corresponding parameter changes. By analyzing the state data on both sides of the neck, it can be found that the left side is under greater pressure. At this time, the neck state detection device can determine that the neck needs to move to the right to balance the pressure distribution. By measuring the contact pressure distribution between the neck and the neck support by the pressure sensor, the pressure of the neck in different areas can be evaluated. If the pressure in a certain area is found to be too high or too low, the user can be reminded to make adjustments to ensure that the neck is balanced in support and comfort.

For example, when the neck is in an excessively forward posture, the neck state detection device can detect the change in the linear acceleration of the neck. By analyzing the data collected by the neck state detection device, it can be determined that the neck needs to be properly tilted backward or maintained in a normal posture to reduce the tension and pressure of the neck muscles.

Based on the changes in the neck angular velocity sensed by the gyroscope, it can be determined whether the neck needs to be rotated or turned. When the neck remains stiff or fixed for a long time, the changes in the neck angular velocity detected by the gyroscope are small, or the sensor detects that the blood circulation in the neck skin is not smooth, it can be determined that the user needs to perform appropriate neck rotation exercises to promote the flexibility of the cervical joints and blood circulation.

The neck state detection device is used to collect neck state data and determine the activity requirements of the neck.

As shown in Figures 1 and 2, the smart neck collar 100 includes a neck collar body 200, and the neck collar body 200 includes a plurality of support plates 210; the support plates 210 include a plurality of rotatably connected sub-support plates 211. In this embodiment, the sub-support plates 211 are sequentially arranged in series on the support frame, and the two ends of the support frame do not extend out of the sub-support plates 211, so as not to affect the wearing of the neck collar body 200.

In addition, since the neck support itself is composed of a plurality of support plates 210 and the sub-support plates 211 can rotate relatively independently, it can provide better support and stability and maintain the correct position of the neck.

Each sub-support plate 211 is rotatably mounted on a support frame (not shown in the figure) via a rotating connector 213, so that each sub-support plate 211 can rotate relatively independently. The sub-support plate 211 is a plate-like structure, and rotates clockwise or counterclockwise around the axis of the support frame. When the sub-support plate 211 rotates, its side will contact the neck and move along the neck until the next side contacts the neck, and the above process will be repeated between multiple sides. The rotation of the sub-support plate 211 against the skin of the neck can massage and scrape the skin of the neck, thereby achieving a massage effect, relieving neck discomfort, and promoting blood circulation.

Furthermore, the height and width of the sub-supporting plate 211 in the direction of the rotating shaft can be set to unequal sizes. Since the shapes and curves of the necks are different, setting the sizes of the sub-supporting plate 211 to unequal forms can better fit the neck curve and provide a more comfortable wearing experience.

Furthermore, since the height and width of the sub-supporting plates 211 in the direction of the rotation axis are not equal, when the supporting plate 210 rotates, the sub-supporting plates 211 of different sizes will contact the neck in different ways, which can achieve directional massage and apply more precise force and stimulation to specific areas.

In addition, different people have different neck shapes and needs. By adjusting the height and width ratio of the sub-supporting plate 211, the adaptability to different individual necks is also higher. For example, a narrower sub-supporting plate 211 is selected for the thinner upper part of the neck, and a wider sub-supporting plate 211 is selected for the lower part of the neck.

Furthermore, the shapes of the plurality of sub-supporting plates 211 connected in series on the support frame can be set to various specifications. Sub-supporting plates 211 of different sizes can provide various types of stimulation feelings, such as more concentrated pressure and a wider massage range, which helps to meet the user's personalized preferences for stimulation intensity and area.

Optionally, a soft bag (not shown in the figure) is wrapped on the sub-pallet 211. When the bag is provided, the friction force on the neck skin caused by the sub-pallet 211 touching the neck is reduced, while maintaining the above effect and avoiding damage to the neck skin.

When it is determined that the neck has a need for movement, the rotation of the sub-support plate 211 is triggered by the neck guiding device. According to the position and posture of the neck, the rotation speed, direction and amplitude of the sub-support plate 211 are adjusted accordingly to guide the neck to perform specific activities. While relieving neck discomfort, the user can also be guided in the direction of neck movement by the rotation direction of the sub-support plate 211. For example, if the neck state detection device determines that the neck is tilted to the left, the neck guiding device can rotate the sub-support plate 211 to the right to prompt the neck to return to a normal neutral position.

During specific implementation, the rotation speed of the sub-supporting plates 211 can be manually adjusted, and the user can also actively choose to rotate a portion of the sub-supporting plates 211 while keeping the rest stationary.

Furthermore, the edge of the sub-supporting plate 211 can be folded, and the folded sub-supporting plate 211 forms a raised portion 212 to contact the neck skin.

As one of the typical implementations, as shown in FIG3 , the edge of the sub-pallet 211 includes a plurality of folding blocks that are hingedly connected to each other. After any folding block is rotated, it is superimposed on the adjacent folding block, thereby completing the transformation from the unfolded state to the folded state of the sub-pallet 211. The edge of the folded sub-pallet 211 can form a raised portion 212 that is higher than the surface of the rest of the sub-pallet 211. When the sub-pallet 211 rotates, the raised portion 212 located at its edge can also contact the neck skin, and compared with the unfolded sub-pallet 211, the edge of the folded sub-pallet 211 fits the neck better, exerting greater pressure on the neck, thereby enhancing the massage effect.

In addition to the folding block method described above, other embodiments can also be used to achieve the edge folding of the sub-pallet 211 and the formation of the protrusion 212.

Another embodiment is to use a connecting rod with adjustable length. The edges of each sub-support plate 211 are connected by a connecting rod. When the edges of the sub-support plate 211 need to be folded, the connecting rod is shortened so that the edges of the sub-support plate 211 are folded inward to form a raised portion 212. In this way, when the sub-support plate 211 rotates, the raised portion 212 will contact the neck skin to increase the massage effect.

Another embodiment is to utilize the elastic properties of elastic materials. The edge of the sub-support plate 211 can be made of elastic materials, such as rubber or silicone. In the unfolded state, the edge of the sub-support plate 211 remains flat; and when the sub-support plate 211 rotates, the elasticity of the edge automatically folds to form a raised portion 212. This design can also provide a better fit with the neck and a massage effect.

Optionally, the sub-supporting plate 211 is wrapped with a soft bag to reduce the friction between the sub-supporting plate 211 and the raised portion 212 and the neck skin, thereby avoiding damage to the neck skin.

The sub-supporting plate 211 is provided with a vibration structure capable of generating vibration. Through the vibration of the vibration structure, the sub-supporting plate 211 exerts a vibration effect on the neck skin when rotating or not rotating, thereby alleviating neck discomfort.

The vibration structure can generate vibration by, for example, using electromagnetic force, piezoelectric effect, mechanical swing, etc. The vibration structure can use a micro vibration motor to generate vibration through a rotation or eccentric mechanism. Alternatively, an electromagnetic vibrator or a piezoelectric ceramic device is provided on the sub-tray 211 to generate mechanical vibration by applying current or voltage.

Of course, the vibration structure in the existing medical equipment, the vibration sensor or the vibration stimulator in the ultrasonic instrument can also be adopted.

A massage structure 230 is disposed on the side of the sub-support plate 211 facing the skin, and the massage structure 230 includes a plurality of rotatably connected blades 231 .

The structure and rotation mode of the blade 231 may refer to the implementation structure of the sub-support plate 211 .

As shown in FIG. 4 , this is equivalent to installing a massage structure 230 similar to the sub-support plate 211 but smaller in size embedded in the side of the sub-support plate 211 , which effectively saves space, is more compact and easy to carry.

When the sub-supporting plate 211 rotates, the embedded massage structure 230 also rotates to contact the neck area. The rotation direction, speed and amplitude of the two can be consistent or inconsistent, exerting multiple stimulation massage effects on the neck area.

The embedded massage structure 230 can increase the stimulation to the skin. Due to the smaller size and closer distance to the skin, the blades 231 will contact the skin more densely, thereby providing a more concentrated massage effect.

Optionally, the blades 231 are made of soft material.

Optionally, the blade 231 is wrapped with a soft bag.

The neck guiding device comprises an indication structure 220 which is telescopically arranged on the neck support body 200; the moving direction of the indication structure 220 corresponds to the direction in which the neck guiding device guides the neck movement.

In this embodiment, the indicating structure 220 is an arrow structure, and the direction of the arrow corresponds to the direction in which the neck guiding device guides the neck to move. The arrow structure is telescopically mounted on the outer side of the supporting plate 210.

For example, as shown in FIG5A , the indicator structure 220 is a horizontal rightward arrow mark. In the default state, the arrow structure is hidden in a cavity with an opening to the right built into the outer side of the support plate 210. When the neck guide device triggers the arrow to move, the arrow structure moves horizontally to the right and extends out of the cavity. The horizontal rightward arrow mark corresponds to the neck guide device guiding the neck to move to the right.

As shown in FIG5B , the indicator structure 220 is an upwardly oblique arrow mark, and in a default state, the arrow structure is hidden in an open upwardly oblique cavity built into the outer side of the support plate 210. When the neck guide device triggers the arrow to move, the arrow structure moves horizontally and extends out of the cavity, and the arrow mark corresponds to the neck guide device guiding the neck to move obliquely to the right.

Similarly, as shown in Fig. 6, when the support plate 210 and/or the sub-support plate 211 has a certain curvature, the indicating structure 220 is an arrow mark with a certain curvature. Move leftward along the cavity until it extends out of the cavity.

Corresponding to different moving directions, a plurality of retractable arrow structures can be installed on the outer side of the support plate 210 .

In another embodiment, the arrow structure is an LED light board, which indicates the movement direction of the neck by changing different colors. For example, the arrow structure moving horizontally uses red to represent movement to the left, green to represent movement to the right, and so on. In this case, a single arrow structure can represent multiple directions. The red color of the arrow structure moving in the right oblique direction represents turning the neck upward in the right oblique direction, and the green color represents turning the neck downward in the right oblique direction. The brightness and flashing mode of the LED light board can also be adjusted as needed.

Furthermore, the prompt of the corresponding activity direction can be played in conjunction with the voice.

The neck state detection device includes a camera assembly embedded in an opening structure provided on the neck support body 200, and an image of the neck skin is captured by the camera assembly.

In this embodiment, the camera assembly is a cylindrical structure, embedded in an opening structure provided on the neck support body 200. As a typical implementation, the opening of the opening structure faces the neck skin.

Under such a setting, the camera assembly can be correctly aligned with the neck skin and closely combined with the collar body 200, so that the captured image is accurate and stable. The cylindrical structure of the camera also helps to avoid interference from external light, improve the image quality and accuracy of analysis.

Parameters of the neck skin condition are obtained by analyzing and processing the neck skin image, and compared with relevant parameters of a preset healthy neck skin image to determine the condition of the neck skin, including but not limited to skin gloss, depth of surface wrinkles, degree of skin sagging, etc.

When it is found that the neck skin condition is not good, the neck state detection device determines that the neck has activity needs and performs corresponding guiding operations through the neck state detection device.

In addition, to further assist users, the device also plays corresponding activity directions with voice. For example, if the neck skin condition is found to be poor, the user is advised to take appropriate care measures through voice broadcast, such as maintaining a good neck posture, performing neck massage, using moisturizer, etc.

The present invention provides an intelligent monitoring method for a neck using any of the above-mentioned intelligent cervical collars, the method comprising the following steps:

Step 1: Collect data on the neck status through a neck status detection device provided on the neck support body.

Step 2: Determine the activity requirement of the neck based on the neck status data.

Step 3, when there is a need for movement, guide the neck movement through the neck guiding device provided on the neck support body.

The neck guiding device controls the rotation of the sub-support plate to guide the neck movement according to the movement requirements of the neck, and/or activates the corresponding indication structure to control the indication structure to move in the direction in which the neck movement needs to be guided.

Specifically, when the neck is tilted excessively to the right for a long time, the neck's movement demand is determined to be that the neck needs to move to the left. The neck guiding device controls the sub-support plate to rotate to the left according to the neck's movement demand, so that it supports the neck and guides the neck to move to the left, and/or activates the corresponding indication structure, controls the indication structure to move to the left, and reminds the user to turn the neck to the left through visual indication.

When the neck is excessively tilted forward for a long time, the neck's activity demand is determined as the neck needs to be tilted back. The neck guiding device activates the corresponding indication structure according to the neck's activity demand, and the indication structure with an upward arrow is extended upward and extended out of the inside of the support plate. Alternatively, the color-changing arrow is extended and then changes color to provide a prompt. Optionally, the end of the arrow is set to be able to touch the user's lower jaw, so as to remind the user to tilt the neck back through visual indication and tactile prompts.

In specific implementation, a certain time interval can be set, and the neck state detection device automatically monitors the state of the neck. If it is found that the neck is in a static state or in a bad posture for a long time, a reminder or vibration is issued to prompt the user to trigger the neck guidance device to perform appropriate neck exercises to avoid stiffness and the formation of bad postures.

The present invention provides an electronic device, which includes a processor and a memory, wherein the memory stores at least one instruction, at least one program, code set or instruction set, and the instruction, the program, the code set or the instruction set is loaded and executed by the processor to implement the steps of the intelligent monitoring method for the neck as described above.

In the scope of the intended protection of the present disclosure, terms such as "including" and the like should be interpreted as inclusive or open by default, rather than exclusive or closed, unless they are expressly defined to the contrary. All technical, scientific or other terms have the meanings understood by those skilled in the art unless they are defined to the contrary. Common terms found in dictionaries should not be interpreted too idealistically or too impractically in the context of relevant technical documents, unless the present disclosure expressly defines them as such.

It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This narrative method of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment can also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims (6)

1. An intelligent neck brace, its characterized in that: the neck support comprises a neck support body, wherein a neck state detection device and a neck guide device are arranged on the neck support body;

The neck state detection device is used for collecting neck state data, comparing the neck state data with preset parameter ranges of healthy neck, and analyzing the reason for the change of the neck state data according to the comparison result so as to obtain the activity requirement of the neck; the neck state detection device comprises an accelerometer, a gyroscope, a pressure sensor and a camera component;

The neck guide device is used for receiving the data sent by the neck state detection device and correspondingly guiding the neck to move; the supporting plates comprise a plurality of sub supporting plates which are connected in a rotating way, and the sub supporting plates are connected in series in sequence and are rotatably arranged on the supporting framework through a rotating connecting component; the edge of the sub-supporting plate can be folded, and the folded sub-supporting plate forms a convex part so as to contact with the skin of the neck.

2. The intelligent cervical collar of claim 1, wherein: a massage structure is arranged on one side of the sub-supporting plate facing the skin, and the massage structure comprises a plurality of blades which are connected in a rotating way.

3. The intelligent cervical collar of claim 2, wherein: the sub-supporting plates and/or the blades are wrapped and provided with soft bags.

4. The intelligent cervical collar of claim 1, wherein: and the sub-supporting plate is provided with a vibration structure capable of generating vibration.

5. The intelligent cervical collar of claim 1, wherein: the neck guide device comprises an indicating structure which is arranged on the neck support body in a telescopic way; the movement direction of the indication structure corresponds to the direction in which the neck guiding device guides the neck movement.

6. The intelligent cervical collar of claim 1, wherein: the camera component is embedded and installed in an opening structure arranged on the neck support body.