TWI879580B - Electrically powered ergonomic foot support and remote-controlled rhythm bed containing the same - Google Patents

Abstract

A remote-controlled rhythm bed with an electrically powered ergonomic foot support comprises: a bed frame assembly, a mattress assembly, and a vibration unit. The mattress assembly is positioned above the bed frame assembly, and the vibration unit is located within the mattress assembly to drive its oscillation. An electrically powered ergonomic foot support includes a base, two first supporting members, two second supporting members, and an electric lifting unit. The base is fixed at one end of the mattress assembly, while the two first supporting members are positioned on either side of the base. The two second supporting members also located on either side of the base, corresponding to the vertical positions of the two first supporting members. The electric lifting unit is movably mounted on the base to drive the two second supporting members to move towards or away from the two first supporting members. Additionally, a remote control communicates with the vibration unit of the oscillating bed assembly and the electric lifting unit of the ergonomic foot support, enabling remote operation and control of the oscillating bed assembly and the ergonomic foot support.

Description

Electric ergonomic foot support and remote-controlled exercise bed containing the same

The present invention relates to a gymnastics bed, and more particularly to an anti-gravity electric ergonomic foot support and a remote-controlled angled gymnastics bed containing the same.

In today's aging society, the care of the elderly and patients is considered a top priority. Among them, the most common problem of the elderly and patients is the limitation of physical strength or disease, which causes them to lie in bed for recuperation and lack of exercise. As a result, not only will their physical strength, mobility and spirit become worse and worse, but their muscles and bones will also gradually degenerate.

In order to prevent various diseases and maintain good health, many studies have pointed out that rhythm training is more effective in increasing bone density than traditional training. After many experiments, scientists have found that the bone-strengthening effect of whole-body rhythm is due to the stimulation of "mesenchymal stem cells" to produce new bones. Mesenchymal stem cells are a type of stem cell found in the bone marrow. They have strong growth and differentiation capabilities and can differentiate into a variety of cells, including osteoblasts. For example, after a fracture, it is more difficult for the elderly to heal than the young. The reason is that the number of mesenchymal stem cells in the elderly is less than that of young people, and fewer osteoblasts are produced. The mechanical stimulation of the rhythm will transmit physical information to the mesenchymal stem cells, changing their differentiation pathways, thereby increasing the number of osteoblasts and improving bone density. Therefore, the rhythm machine can allow the elderly, bedridden people, and patients with limited mobility to exercise in a sitting, lying or standing position, enjoy the results of exercise and improve bone density.

Secondly, bone cells and fat cells are both derived from mesenchymal stem cells. Therefore, when mesenchymal stem cells generate bone cells, fat cells will not be generated. Therefore, people who sit for a long time tend to accumulate fat in their bodies and reduce bone density. For example, after a study by the University of Leuven in Belgium, it was found that vertical agitation can increase the knee joint muscle extension strength of the elderly and increase the squat vertical jump test after 24 weeks. The effect is obvious and close to hard resistance training. Therefore, whole-body agitation exercises have been developed in the fields of medicine and sports. Many studies have pointed out that agitation training is more effective than traditional training in increasing bone density and reducing fat accumulation.

Furthermore, through rhythmic training, muscle function can be enhanced and balance can be improved. According to the research results of the University of Technology in Australia, it was found that the elderly who do rhythmic exercises three times a week can effectively improve their motor function, and the effect is even better than general exercise. In addition, the research conclusion of the University of Alexander in Germany also shows that "rhythm can replace traditional exercise, help increase maximum muscle strength, body bending force and reduce pain." In addition, rhythmic training also brings good results in improving balance. For example, studies by Japan University and the Chinese University of Hong Kong have found that after long-term rhythmic training, the elderly can significantly improve their walking speed, stride length, and the time they can stand on one leg. In addition, there are significant improvements in the maximum walking distance and direction control; significantly better than the effect of simple exercise.

In other words, rhythm can improve muscles and balance, mainly because rhythm can stimulate the receptors (muscle spindles) in the muscles, leading to reflex contraction of muscles that balance the body; rhythm also stimulates secretions such as growth hormone and testosterone, causing acute or chronic neuromuscular adaptation; in addition, rhythm can also stimulate myoblasts, thereby promoting the number and strength of myotubes. Therefore, rhythm training enhances muscle regeneration and muscle strength, thereby training muscles.

In summary, we can understand that whole body rhythm is a form of exercise that can be applied to fitness training, aerobic exercise classes, rehabilitation therapy, etc. Rapid up and down movements, horizontal or tilted movements can activate muscles in various parts of the body, enhance cardiopulmonary function, increase muscle strength, promote blood circulation, improve body posture, reduce stress and anxiety, etc. Moreover, rhythm training can stimulate hormone secretion, stimulate the release of nitric oxide, and promote blood vessel health. Therefore, rhythm training has the advantages of improving bone density, strengthening muscles and joints, reducing pain, improving cardiovascular function, reducing fat accumulation, helping bone development, rehabilitating patients after surgery, and improving nervous system diseases. It is beneficial to both physical and mental health.

On the other hand, rhythm training can be divided into passive exercises such as vertical rhythm and horizontal rhythm. It mainly uses mechanical assistance to drive the body and uses electronic or machine drive to produce exercise effects. Whole-body horizontal rhythm increases the blood flow of the human body through the effect of horizontal rhythm, thereby generating blood flow shear force, which stimulates cells to produce substances that are beneficial to the cardiovascular system, relax blood vessels, and resist inflammation, anti-thrombosis, and anti-oxidation to protect the heart and blood vessels and prevent cardiovascular diseases. Whole-body vertical rhythm was used to train astronauts in the early days. Through the physical effect of gravity, astronauts can slow down the rate of muscle atrophy in a weightless state, change the body's musculoskeletal nervous system, and further affect the endocrine and other physiological systems, producing various health-promoting effects, thereby increasing the time spent in space. Therefore, rhythm is also known as the world's most relaxing passive exercise.

Based on the above excellent effects, in recent years, the industry has developed vertical and horizontal rhythm beds, which can provide up, down, front, back, left and right vibrations when people lie on them, so as to help the elderly and patients get some activities, promote blood circulation and metabolism, and stimulate muscles and bones to achieve effects similar to exercise. In order to fix the user on the rhythm bed and prevent him from falling due to the rhythm, the industry has also designed a foot support structure at one end of some rhythm beds, which can fix the user's feet so that he will not fall off the bed due to the movement of the rhythm bed.

However, the common exercise beds and foot supports currently on the market all require manual adjustment of the relevant settings before they can be operated. For example, to manually set the exercise bed's exercise function, exercise time, exercise intensity, etc., an assistant (such as a doctor, physical therapist, nurse, etc.) is required to set it up using the control buttons on the exercise bed before it can start operating, and the user cannot adjust the above buttons during operation. On the other hand, the foot supports currently on the market mainly require manual operation by an assistant to clamp or loosen the user's legs, and the user cannot adjust the tightness of the foot support during operation, which obviously causes inconvenience to the user's experience of using the exercise bed, and the part that requires an assistant to set up and adjust it also requires additional labor costs.

Therefore, how to provide a foot bearing support and a massage bed containing the same so that users can enjoy the comprehensive effects of various massage methods such as vertical massage beds, horizontal massage beds, and inclined massage beds, and effectively solve the problems of using massage beds and foot bearing support to help users exercise more easily and stay healthy is one of the issues that need to be solved urgently by practitioners and researchers in related fields.

The main purpose of the invention is to provide an electric ergonomic foot support and a remote-controlled exercise bed containing the same, which can remotely control the movement of the foot support and the exercise bed, thereby solving the problem that the exercise bed in the past needs manual adjustment and consumes labor costs.

In order to achieve the above-mentioned purpose of the invention, the present invention provides an electric ergonomic foot support, which includes: a base, having a first support group and a second support group; the first support group and the second support group are separated by a predetermined distance and extend toward both sides of the base, wherein the second support group is located above the first support group; two first supporting members, respectively arranged at the two ends of the first support group; two second supporting members, respectively arranged at the two ends of the second support group and corresponding to the vertical positions of the two first supporting members; and an electric lifting unit, movably arranged on the base and connected to the first support group and the second support group, for being driven to drive the second support group and the two second supporting members to move in a direction approaching or moving away from the two first supporting members.

In one embodiment, the electric lifting unit is an electric hydraulic lifting rod.

In one embodiment, the electric ergonomic foot bearing bracket is further provided with a hook on the second bracket assembly.

In one embodiment, the first supporting members and the second supporting members are square pads with a certain degree of elasticity.

In one embodiment, the top side of each first supporting member is further provided with an upper notch with a concave direction facing upward; the bottom side of each second supporting member is further provided with a lower notch with a concave direction facing downward corresponding to the upper notch in the vertical position.

In one embodiment, a remote-controlled vibration bed includes: a bed body having a bed frame assembly, a mattress assembly and a vibration unit, the mattress assembly is arranged above the bed frame assembly, and the vibration unit is arranged in the mattress assembly for being driven to drive the mattress assembly to vibrate; at least one electric ergonomic foot bearing bracket is arranged at one end of the mattress assembly; and a remote controller is communicatively connected to the vibration unit of the bed body and the electric lifting unit of the ergonomic foot bearing bracket for operation to remotely control the movement of the bed body and the ergonomic foot bearing bracket.

In one embodiment, the mattress assembly can be driven to rotate between a first angle and a second angle relative to the bed frame assembly; when the mattress assembly rotates to the first angle, the angle between the mattress assembly and the bed frame assembly is 0 degrees; when the mattress assembly rotates to the second angle, the angle between the mattress assembly and the bed frame assembly is greater than 0 degrees; wherein the remote control has at least one bed surface tilt adjustment unit, which can be driven to control the mattress assembly to rotate to the first angle, the second angle, or any angle between the first angle and the second angle relative to the bed frame assembly.

In one embodiment, the remote controller has a foot clamp tension adjustment unit that can be driven to remotely control the electric lifting unit of the electric ergonomic foot support to lift and lower, thereby adjusting the distance between the first supporting members and the second supporting members.

In one embodiment, the remote controller has a plurality of rhythm time adjustment units that can be driven to remotely control the rhythm time length of the rhythm unit.

In one embodiment, the remote controller has a plurality of rhythm frequency adjustment units, which can be driven to remotely control the rhythm frequency of the rhythm unit. 〔Effect of the invention〕

The electric ergonomic foot support and the remote-controlled exercise bed containing the same provided by the present invention can remotely control the movement of the bed and the electric ergonomic foot support by means of the remote controller, so that the user can adjust various functions of the exercise bed in real time according to his/her own usage conditions during the use of the exercise bed, thereby improving the user's usage experience, and also having the effects of improving bone density, strengthening muscles and joints, reducing pain, improving cardiovascular function, reducing fat accumulation, helping bone development, rehabilitating patients after surgery, and improving nervous system diseases.

On the other hand, since the present invention provides the function of remotely controlling the rhythm bed, the user can use the rhythm bed of the present invention independently even without an assistant to provide assistance, which further solves the problem of labor costs required when using a rhythm bed in the past, and allows the user to enjoy the comprehensive effects of various rhythm methods such as vertical rhythm beds, horizontal rhythm beds, and inclined rhythm beds.

In other words, the technology of the present invention can not only effectively improve the user experience of the exercise bed, but also promote the use of the exercise bed in the homes of the elderly or patients, thereby creating a home conditioning environment that is friendly to the elderly and patients.

In the following, preferred embodiments are given according to the objectives, effects and structural configurations disclosed in the present invention, and are described in detail with reference to the drawings.

The following descriptions with reference to the drawings are preferred embodiments of the present invention. It should be understood that the drawings and descriptions are for illustrative purposes only and are not intended to limit the present invention. In addition, the terms "upper" and "lower", "left" and "right", "front" and "back", "first" and "second" described in the specification are used to clearly explain the relative positions between components or mechanisms and are not intended to be limiting.

Please refer to FIG. 1 to FIG. 5 , the first preferred embodiment of the present invention provides a remote-controlled exercise bed with an electric ergonomic foot support, which mainly includes: a bed body 10, at least one electric ergonomic foot support 20 and a remote controller 30. Among them:

According to an embodiment of the present invention, the bed body 10 has a bed frame assembly 11, a mattress assembly 12, a motion unit 13 and a raising unit 14.

The mattress set 12 is disposed above the bed frame set 11. The mattress set 12 has a pivot end 120 and a free end 121 at two opposite ends. The pivot end 120 is pivotally connected to the bed frame set 11, and the free end 121 can be displaced relative to the bed frame set 11.

The vibration unit 13 is used to drive and control the mattress assembly 12 to vibrate back and forth relative to the bed frame assembly 11.

The raising unit 14 is an electric telescopic rod, which is disposed between the bed frame assembly 11 and the mattress assembly 12, and has two ends respectively connected to the bed frame assembly 11 and the mattress assembly 12. The raising unit 14 is driven to extend and retract, thereby controlling the mattress assembly 12 to rotate between a first angle and a second angle relative to the bed frame assembly 11.

According to an embodiment of the present invention, when the mattress assembly 12 rotates to the first angle, the angle between the mattress assembly 12 and the bed frame assembly 11 is 0 degrees, and the free end 121 abuts against the bed frame assembly 11. When the mattress assembly 12 rotates to the second angle, the angle between the mattress assembly 12 and the bed frame assembly 11 is greater than 0 degrees, and the free end 121 leaves the bed frame assembly 11.

According to an embodiment of the present invention, the electric ergonomic foot support 20 includes a base 21, at least two first supporting members 22, at least two second supporting members 23 and an electric lifting unit 24.

The base 21 is a component composed of a plurality of frames, one end of which is fixed to the free end 121 of the mattress assembly 12 so that the electric ergonomic foot support 20 can move synchronously with the free end 121 .

The base 21 has a first bracket set 211 and a second bracket set 212. The first bracket set 211 is disposed at a lower position of the base 21, and its two ends extend in directions away from the two sides of the base 21. The second bracket set 212 is disposed at an upper position of the base 21, and its two ends extend in directions away from the two sides of the base 21. Thus, the first bracket set 211 and the second bracket set 212 are spaced a predetermined distance apart and are substantially parallel, and the second bracket set 212 is located above the first bracket set 211.

The two first supporting members 22 are respectively disposed at two ends of the first bracket set 211 , and the two second supporting members 23 are respectively disposed at two ends of the second bracket set 212 and correspond to the vertical positions of the two first supporting members 22 .

In this embodiment, the first supporting members 22 and the second supporting members 23 are square pads with a certain elasticity. The top side of each first supporting member 22 has an upper notch 220 with a concave direction facing upward.

According to an embodiment of the present invention, each second supporting member 23 has a lower recess 230 on its bottom side. Thus, when the electric ergonomic foot support 20 clamps the leg, the arc-shaped grooves of the upper recesses 220 and the lower recesses 230 are designed to correspond exactly to the arc shape of the thigh.

The electric lifting unit 24 is disposed on the base 21 and connected to the first bracket set 211 and the second bracket set 212 for being driven to lift and lower, thereby driving the second bracket set 212 and the two second supporting members 23 to move in a direction away from or close to the two first supporting members 22.

In this embodiment, the electric lifting unit 24 is an electric hydraulic lifting rod, but is not limited thereto.

In addition, according to other embodiments of the present invention, the electric ergonomic foot support 20 can be further configured with at least one hook 25 or a clamp (not shown) above the second support assembly 212 for the user to hang or clamp items.

The remote controller 30 is communicatively connected to the vibration unit 13, the raising unit 14 and the electric lifting unit 24 of the bed body 10 for remotely controlling the movement of the bed body 10 and the electric ergonomic foot support 20.

Specifically, please refer to FIG. 4 and FIG. 5 , the remote controller 30 has a plurality of rhythm time adjustment units 31, a plurality of rhythm frequency adjustment units 32, a plurality of bed tilt adjustment units 33, a foot clamp tightness adjustment unit 34, a stop unit 35 and a lighting unit 36.

The rhythm time adjustment units 31 are used to control the length of the rhythm time of the rhythm unit 13. For example, in the present embodiment, the rhythm time adjustment units 31 include 4 buttons, such as 15 minutes, 30 minutes, 45 minutes and 60 minutes; but not limited to this, for example, the number of buttons can be 2, 6, 8, 10 or other numbers; and the rhythm time can also be 15 minutes, 30 minutes, 45 minutes, 60 minutes, 75 minutes, 90 minutes, etc. Various different times. Through the rhythm time adjustment units 31, the user can remotely adjust the length of the current use time of the rhythm bed of the present invention as needed.

The rhythm frequency adjustment units 32 are used to operate and control the rhythm frequency of the rhythm unit 13. For example, in this embodiment, the rhythm frequency adjustment units 32 include 11 digital buttons, such as buttons "1" to "11", but not limited thereto; wherein button "1" represents a built-in frequency of 1.08HZ, button "2" represents a built-in frequency of 1.1HZ, button "3" represents a built-in frequency of 1.33HZ, button "4" represents a built-in frequency of 1.5HZ, and button "5" represents a built-in frequency of 1.6HZ. Button "5" represents a built-in frequency of 1.66HZ, button "6" represents a built-in frequency of 1.83HZ, button "7" represents a built-in frequency of 2HZ, button "8" represents a built-in frequency of 2.16HZ, button "9" represents a built-in frequency of 2.33HZ, button "10" represents a built-in frequency of 2.5HZ, and button "11" represents a built-in frequency of 2.66HZ. By means of the rhythm frequency adjustment units 32, the user can remotely adjust the rhythm frequency of the current use of the rhythm bed according to needs.

The bed surface tilt adjustment units 33 are used to operate and control the support unit 14 to drive the mattress assembly 12 to rotate to the first angle, the second angle, or any angle between the first angle and the second angle relative to the bed frame assembly 11. For example, in this embodiment, the first angle is 0 degrees, and the second angle is 15 degrees. Therefore, the bed surface tilt adjustment units 33 include buttons for adjusting the mattress assembly 12 to 0 degrees, 5 degrees, 10 degrees, and 15 degrees, and buttons for steplessly adjusting the mattress assembly 12 to any angle between 0 and 15 degrees. Through the bed surface tilt adjustment units 33, the user can remotely adjust the tilt degree when lying on the massage bed as needed. Furthermore, the first angle or the second angle is not limited to the angles listed above. For example, the second angle can also be various different angles such as 10 degrees, 20 degrees, 30 degrees, 35 degrees, 40 degrees, 45 degrees, 50 degrees, 55 degrees, 60 degrees, etc.

The clamping foot tension adjustment unit 34 is used to operate and control the electric lifting unit 24 to lift and lower, so as to adjust the distance between the second supporting members 23 and the first supporting members 22. For example, in this embodiment, the clamping foot tension adjustment unit 34 includes a button that can steplessly adjust the distance between the first supporting members 22 and the second supporting members 23 to move between 0 and 200 mm. Through the clamping foot tension adjustment unit 34, the user can remotely adjust the force of the leg being clamped as needed. Furthermore, the distance between the second supporting members 23 and the first supporting members 22 is not limited to the above-mentioned ranges, and may be, for example, various distance ranges such as 0 to 200 mm, 0 to 300 mm, 0 to 400 mm, etc.

The stop unit 35 is used to remotely control the mattress assembly 12 and the electric ergonomic foot support 20 to stop. By using the stop unit 35, the user can remotely stop the motion bed from continuing to move when necessary and prevent the possibility of injury.

The lighting unit 36 is used to operate the remote control 30 to emit light, thereby enabling the remote control 30 to have a function similar to a flashlight, which is convenient for users to use at night.

The operation of the massage bed of the present invention is described below with reference to FIG6 and FIG7. First, please refer to FIG6 and FIG7. When a user 100 uses the massage bed of the present invention, he can lie on the mattress assembly 12 of the bed body 10 and control the second supporting members 23 to separate from the first supporting members 22 through the foot clamping tightness adjustment unit 34 of the remote control 30.

Next, the user 100 can first pass the legs (thighs in this embodiment) through the gaps between the second supporting members 23 and the first supporting members 22 and place them on the two first supporting members 22, and then control the second supporting members 23 to move downward through the clamping tightness adjustment unit 34 of the remote control 30 until they rest against the legs of the user 100, and the legs of the user 100 are clamped by the second supporting members 23 and the first supporting members 22, so as to achieve the effect of quickly fixing the legs of the user.

When using the exercise bed, the user 100 can adjust the tilt angle of the mattress assembly 12 through the bed tilt adjustment unit 33 of the remote control 30, so that the mattress assembly 12 is tilted to present a head-down, feet-up state, so as to achieve the effect of stretching.

Thus, any user can complete all settings and adjustments by himself/herself through the remote controller 30 when using the exercise bed of the present invention, without the need for an assistant, which effectively solves the problems of poor user experience and high labor costs of exercise beds in the past.

The second preferred embodiment of the remote-controlled exercise bed of the present invention is described below with reference to Figures 8 and 9. First, please refer to Figures 8 and 9. The second preferred embodiment of the present invention is a remote-controlled exercise bed with an electric ergonomic foot support having a similar structure to the first preferred embodiment.

However, the two first supporting members 22 and the two second supporting members 23 of the electric ergonomic foot support 20 configured in this embodiment are respectively square pads with a certain elasticity, and the contact surface between the two is a plane without upper and lower notches. Thus, when the user uses the electric ergonomic foot support 20 of this embodiment to clamp the legs, the plane design of the two first supporting members 22 and the two second supporting members 23 can increase the clamping area, which is more friendly to people with thicker legs.

In summary, the electric ergonomic foot support and the remote-controlled exercise bed containing the same provided by the present invention can remotely control the movement of the bed and the electric ergonomic foot support via the remote controller, so that the user can adjust various functions of the exercise bed in real time according to his/her own usage during the use of the exercise bed, thereby improving the user's usage experience.

On the other hand, since the present invention provides the function of remotely controlling the exercise bed, the exercise bed of the present invention can be used independently without an assistant, further solving the problem of labor costs required when using the exercise bed in the past.

In other words, the technology of the present invention can not only effectively improve the user experience of the rhythm bed, allowing users to enjoy the comprehensive effects of various rhythm methods such as vertical rhythm beds, horizontal rhythm beds, and inclined rhythm beds, but also promote the use of rhythm beds in the homes of the elderly or patients, thereby creating a home conditioning environment that is friendly to the elderly and patients.

The above embodiments are merely illustrative of the technology and its effects of the present invention, and are not intended to limit the present invention. Any person skilled in the art may modify and alter the above embodiments without violating the technical principles and spirit of the present invention, and therefore the scope of protection of the present invention shall be as described in the patent application scope below.

10: Bed body 11: Bed frame assembly 12: Mattress assembly 120: Pivot end 121: Free end 13: Rhythm unit 14: Heightening unit 20: Electric ergonomic foot support 21: Base 211: First support assembly 212: Second support assembly 22: First support member 220: Upper notch 23: Second support member 230: Lower notch 24: Electric lifting unit 25: Hook 30: Remote control 31: Rhythm time adjustment unit 32: Rhythm frequency adjustment unit 33: Bed surface tilt adjustment unit 34: Foot clamp tightness adjustment unit 35: Stop unit 36: Lighting unit 100: User

FIG. 1 is a three-dimensional diagram of a first preferred embodiment of the present invention. FIG. 2 is a three-dimensional schematic diagram of an electric ergonomic foot support bracket of the first preferred embodiment of the present invention, showing the state of the first supporting member and the second supporting member abutting against each other. FIG. 3 is a three-dimensional schematic diagram of an electric ergonomic foot support bracket of the first preferred embodiment of the present invention, showing the state of the first supporting member and the second supporting member being separated. FIG. 4 is a schematic diagram of a remote controller of the first preferred embodiment of the present invention. FIG. 5 is a block diagram of the first preferred embodiment of the present invention. FIG. 6 is a schematic diagram of the use state of the first preferred embodiment of the present invention. FIG. 7 is a schematic diagram of the use state of the first preferred embodiment of the present invention from another perspective. FIG8 is a three-dimensional schematic diagram of an electric ergonomic foot support according to a second preferred embodiment of the present invention. FIG9 is a schematic diagram of the use state of the second preferred embodiment of the present invention.

10: Bed

11:Bed frame set

12: Mattress set

120: Hub terminal

121: Free end

20: Electric ergonomic foot support

21: Base

22: First supporting member

23: Second supporting member

24: Electric lifting unit

Claims (9)

An electric ergonomic foot support comprises: a base having a first support group and a second support group; the first support group and the second support group are separated by a predetermined distance and extend toward both sides of the base, wherein the second support group is located above the first support group; two first supporting members, respectively disposed at two ends of the first support group; two second supporting members, respectively disposed at two ends of the second support group and corresponding to the vertical positions of the two first supporting members; and an electric lifting unit, movably disposed on the base and connected to the base. Connected to the first bracket set and the second bracket set, it is used to drive the second bracket set and the two second supporting members to move in the direction of approaching or moving away from the two first supporting members; each of the first supporting members is further provided with an upper notch with an upward concave direction on the top side; each of the second supporting members is further provided with a lower notch with a downward concave direction corresponding to the upper notch in the vertical position on the bottom side; the two first supporting members and the two second supporting members are respectively square pads with a certain elasticity, and the contact surface between the two is a plane without upper and lower notches. An electric ergonomic foot bearing as described in claim 1, wherein the electric lifting unit is an electric hydraulic lifting rod. The electric ergonomic foot bearing bracket as described in claim 1, wherein the electric ergonomic foot bearing bracket is further provided with a hook on the second bracket assembly. The electric ergonomic foot bearing bracket as described in claim 1, wherein the first supporting members and the second supporting members are square pads with a certain elasticity. A remote-controlled vibration bed comprises: a bed body having a bed frame assembly, a mattress assembly and a vibration unit, wherein the mattress assembly is arranged above the bed frame assembly, and the vibration unit is arranged inside the mattress assembly for being driven to drive the mattress assembly to vibrate; at least one electric ergonomic foot support as described in any one of claims 1 to 4 is arranged at one end of the mattress assembly; and a remote controller, which is communicatively connected to the vibration unit of the bed body and the electric lifting unit of the ergonomic foot support, for operating and remotely controlling the movement of the bed body and the ergonomic foot support; wherein The electric ergonomic foot support includes two first supporting members respectively arranged at the two ends of the first support group, and two second supporting members respectively arranged at the two ends of the second support group and corresponding to the vertical positions of the two first supporting members; the top side of each first supporting member is further provided with an upper notch with a concave direction facing upward; the bottom side of each second supporting member is further provided with a lower notch with a concave direction facing downward corresponding to the upper notch at the vertical position; the two first supporting members and the two second supporting members are respectively square pads with a certain elasticity, and the contact surface between the two is a plane without upper and lower notches. A remote-controlled exercise bed as described in claim 5, wherein the mattress assembly can be driven to rotate between a first angle and a second angle relative to the bed frame assembly; when the mattress assembly rotates to the first angle, the angle between the mattress assembly and the bed frame assembly is 0 degrees; when the mattress assembly rotates to the second angle, the angle between the mattress assembly and the bed frame assembly is greater than 0 degrees; wherein the remote controller has at least one bed surface tilt adjustment unit, which can be driven to control the mattress assembly to rotate relative to the bed frame assembly to the first angle, the second angle, or any angle between the first angle and the second angle. As described in claim 5, the remote control has a foot clamp tension adjustment unit, which can be driven to remotely control the electric lifting unit of the electric ergonomic foot support to lift and lower, thereby adjusting the distance between the first supporting members and the second supporting members. A remote-controlled massage bed as described in claim 5, wherein the remote controller has a plurality of massage time adjustment units that can be driven to remotely control the massage time length of the massage unit. A remote-controlled massage bed as described in claim 5, wherein the remote controller has a plurality of massage frequency adjustment units that can be driven to remotely control the massage frequency of the massage unit.