TWM468172U - Orthotic insole with both comfort and energy - Google Patents

Description

Corrective insole with comfort and energy

The present invention relates to a corrective insole, and more particularly to a corrective insole that combines comfort and energy.

Referring to FIG. 1, a conventional insole 10 includes a insole body 11 and a skin layer 12 attached to the upper portion of the insole body 11. The insole body 11 is generally made of plastic, for the purpose of correcting the shape of the patient's sole. Made of carbon fiber or other materials with appropriate hardness, and for the comfort of the body, the upper skin layer 12 is made of a soft material such as leather, foam or sponge. It has the effect of correcting the shape of the foot and wearing it comfortably. However, the corrective insole 10 is attached with a skin layer 12 on the insole body 11, and the skin layer 12 is not too thick, otherwise the effect of correcting the shape of the foot is lost, but the skin layer 12 is too thin, and the patient is allowed to walk. At the time, it is easy to cause discomfort, and therefore the thickness of the skin layer 12 is difficult to control in order to adapt to the shape of each part of the sole.

Referring to FIG. 2, there is another conventional insole 20, which includes an insole body 21 conforming to the shape of a human sole. The insole body 21 is made of a plastic material mixed with a nano-scale far-infrared material and then mixed by an injection machine. One-shot injection molding, so that the insole body 21 itself can be emitted to promote the human body Far infrared rays for blood circulation effects. The biggest disadvantage of the above-mentioned orthotic insole 20 in use is that since the entire insole body 21 is integrally formed of a hard material, it is uncomfortable to wear, and its shape is integrally molded by a plastic material, and it is impossible to target the sole of each corrector. The shape and position change shape, so it cannot meet the correction needs of all correctors.

Referring to FIG. 3, there is also a corrective insole 30, which mainly includes an insole body 31 and a surface body 32 attached to the insole body 31. The insole body 31 is also composed of a hard material, and the surface body 32 includes a surface body 32. a foam layer 321 , a skin layer 322 attached to the foam layer 321 , and a printed layer 323 coated on the skin layer 322 , wherein the printed layer 323 is made of a nanometer capable of generating far infrared rays The material is constructed, whereby the insole 30 can be corrected to have the effect of correcting the shape of the foot and activating the blood. However, the corrective insole 30 is coated on the uppermost layer of the surface body 32, and is in direct frictional contact with the sole of the human body. After being used for a period of time, the printed layer 323 is easily rubbed off due to constant friction. The original use function is gradually lost, so the printed layer 323 is kept in normal operation for a short period of time.

Referring to FIG. 4, there is also a correction insole 40, which also includes an insole body 41 and a surface body 42 attached to the insole body 41. The surface body 42 includes a fixing and fixing to the insole body 41. a printing layer 421, a foam layer 422 attached to the printing layer 421, and a skin layer 423 attached to the foam layer 422. The printing layer 421 is also made of a nano material capable of generating far infrared rays. Therefore, the printed layer 421 does not come into contact with the human body to cause a problem of falling off. However, this insole The structure still has disadvantages. Since the surface body 42 is fixed to the insole body 41 by the printed layer 421, the combination of the two is mainly bonded by a glue, but the general adhesive composition will be on the printed layer 421. The effect of dilution causes the energy effect of the printed layer 421 to generate far infrared rays to deteriorate.

Therefore, the present invention aims to provide a corrective insole having comfort and energy that is comfortable to wear and which can generate activation energy for the human body.

Therefore, the present invention provides a corrective insole having both comfort and energy, comprising an insole unit and at least one buffer unit, wherein: the insole unit comprises a hard insole conforming to the shape of the human sole; the buffer unit is disposed on the insole unit to the human body The sole of the foot forms a contact, and the buffer unit comprises a soft foam having a predetermined softness in contact with the sole of the human body, and a metal body attached to the flexible foam to emit a wavelength of energy which is beneficial to the blood circulation of the human body.

The utility model has the beneficial effects that the buffer unit can be selectively disposed at a predetermined position of the insole unit, thereby being adapted to correct the shape of the foot of each corrector and achieving a stable balance supporting effect, and the buffer unit comprises a soft foam body and a The metal body and the soft foam of the human foot contact have the effect of wearing comfort, and the metal body emits energy wavelengths which are beneficial to the human body, thereby enabling the novel to have both the comfort and the energy fitness effect.

50‧‧‧sole unit

51‧‧‧hard insoles

511‧‧‧ longitudinal arch

512‧‧‧cross bow

60‧‧‧buffer unit

61‧‧‧Soft foam

62‧‧‧Metal body

60I‧‧‧buffer unit

60II‧‧‧buffer unit

60III‧‧‧buffer unit

70‧‧‧Another insole unit

71‧‧‧hard insole

72‧‧‧Surface

721‧‧‧Shocking foam layer

722‧‧‧ natural cortex

I‧‧‧foot area

II‧‧‧heel area

Other features and effects of the novel will be referred to the drawings. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS In the detailed description, FIG. 1 is a cross-sectional view of a first conventional orthotic insole; FIG. 2 is a cross-sectional view of a second conventional orthotic insole; and FIG. 3 is a third conventional orthopedic insole FIG. 4 is a cross-sectional view of a fourth conventional corrective insole; FIG. 5 is an exploded perspective view of the first preferred embodiment of the present invention, which has both a comfortable and energy-corrected insole, and the present invention includes an insole unit and a plurality of buffer units. Figure 6 is a combination view of the above preferred embodiment; Figure 7 is a cross-sectional view taken along line VII-VII of Figure 6; Figure 8 is an action view of the preferred embodiment, illustrating the user's foot pressing on the insole unit and each The case where the buffer unit is in contact; and FIG. 9 is a cross-sectional view of the second preferred embodiment of the present invention, illustrating that the present invention includes another insole unit and a plurality of buffer units.

Before the present invention is described in detail, it should be noted that in the following description, similar elements are denoted by the same reference numerals.

Referring to FIGS. 5-7, the present invention has a comfortable and energy-corrected insole. In the first preferred embodiment, the present invention mainly includes an insole unit 50 and a plurality of buffer units 60. Then, the shape and structure of the units are combined. The type is detailed later.

The insole unit 50 includes a hard insole 51 conforming to the shape of the sole of the human body. In the embodiment, the hard insole 51 is made of a hard plastic material, and the manufacturer may also use carbon fiber or other hard materials. The shape of the hard insole 51 conforms to the shape of the rear half of the human sole, and is divided into a bow region I and a heel region II, wherein the arch region I defines two longitudinal arches at the two sides. At portion 511, the arch region I defines a beveled crossbow portion 512 at the leading edge.

A plurality of buffer units 60 are respectively disposed at predetermined positions of the insole unit 50. In the embodiment, three different types of buffer units 60I, 60II, and 60III are used, and two buffer units 60I and 60II are respectively disposed on the insole unit 50. The longitudinal arch portion 511 at the side edge, the other buffer unit 60III is disposed at the transverse arch portion 512 at the front side of the insole unit 50, and the three buffer units 60I, 60II, 60III can form at least three contact points on the sole of the human body, three places. The convex part has the function of dispersing the pressure of the sole of the foot, so that the novel body can form a stable and balanced supporting effect when worn, and the operator can select more different shapes and thicknesses according to the shape of each part of the user's sole. The combination of the buffer unit 60 makes the present invention more suitable for the wearer's needs. Each of the buffer units 60 includes a flexible foam 61 having a predetermined softness, and a metal body 62 attached to the flexible foam 61. The flexible foam 61 is made of PU, EVA plastic, rubber or foam. It is composed of a foam made of cotton material, and its hardness is in the range of 25 to 35 degrees of Shore hardness. The material is elastically restored by pressure, and has excellent cushioning ability. The metal body 62 The material used is titanium alloy, which can emit energy wavelengths that help the body's blood circulation. Of course, other types of metal materials can be used.

The above is an overview of the structure and shape of the new corrective insole with comfort and energy; then, the use of the new type and the expected The performance statement that can be achieved is as follows: Referring to FIG. 8, when the user wears the novel, most of the human sole will be in contact with the hard insole 51, and the arch portion of the sole can be in contact with each buffer unit 60, and each buffer When the soft foam 61 of the unit 60 is pressed by the sole of the human body, it will be depressed and compressed to form a cushioning effect, so that the present invention has a comfortable wearing contact effect, and the metal body 62 is attached to the outside of the soft foam 61 and the sole of the human body. Contact, it can emit energy wavelengths beneficial to human health, and the human foot has multiple acupuncture points. The hard structure of the metal body 62 forms a convex top contact with the acupuncture points of the foot, which enables the present invention to achieve the effects of correction and radiation energy.

In summary, the present invention is mainly for the comfort and energy of the insole in order to solve the wear comfort and energy problems of the various corrective insoles 10~40. The technical means of the present invention is mainly that the hard insole 51 corresponds to the human arch. The position of the part is provided with a plurality of buffering units 60. The hard insole 51 has the basic function of correcting the shape of the sole of the human body, and the plurality of cushioning units 60 are disposed on the hard insole 51 to adapt to various human sole shapes and at least three contact points are formed. Thereby, a stable and balanced supporting action is achieved, and each of the buffer units 60 includes a flexible foam body 61 and a metal body 62, and the soft foam body 61 is in contact with the human foot to provide a wearable effect with optimum comfort. The metal body 62 can emit energy wavelengths which are beneficial to the human body, and the metal body 62 also has a convex top massage effect on the acupuncture points of the human foot. When the foot moves, it can stimulate the beneficial energy to the human body, so the novel can simultaneously It also has the effect of wearing comfort and energy fitness.

There is another different embodiment of the present invention, see Figure 9, this In the second preferred embodiment, another insole unit 70 and a plurality of buffer units 60 are included. The plurality of buffer units 60 are respectively disposed at predetermined positions of the insole unit 70. Each of the buffer units 60 includes a pair of human body. The sole of the foot provides a soft foam 61 with a good comfortable wearing effect, and a metal body 62 that emits energy for beneficial human health. Unlike the first embodiment, the insole unit 70 includes a hard insole 71 and a sticker a surface body 72 on the hard insole 71, the surface body 72 is composed of a shock absorbing foam layer 721 and a natural skin layer 722, whereby the human sole is in contact with the insole unit 70 is a softer surface body 72, which can provide more Comfortable wear.

However, the above description is only the preferred embodiment of the present invention, and the scope of the present invention cannot be limited thereto, that is, the simple equivalent change and modification according to the scope of the patent application and the contents of the patent specification. , are still within the scope of this new patent.

50‧‧‧sole unit

51‧‧‧hard insoles

511‧‧‧ longitudinal arch

512‧‧‧cross bow

60‧‧‧buffer unit

61‧‧‧Soft foam

62‧‧‧Metal body

60I‧‧‧buffer unit

60II‧‧‧buffer unit

60III‧‧‧buffer unit

I‧‧‧foot area

II‧‧‧heel area

Claims (5)

A corrective insole having both comfort and energy, comprising: an insole unit comprising a hard insole conforming to the shape of a human sole; and at least one buffer unit disposed on the insole unit to form contact with the sole of the human body, the buffer unit comprising a A soft foam having a predetermined softness in contact with the sole of the human body, and a metal body attached to the soft foam to emit a wavelength of energy which contributes to the circulation energy of the human body. The corrective insole as claimed in claim 1 , wherein the insole unit further comprises a surface body attached to the hard insole, the surface body being composed of a foam layer and a skin layer. The corrective insole as claimed in claim 1 , wherein the rigid insole is divided into a forefoot region and a heel region, and two arch portions are defined at the two sides of the arch region, and the arch region is A cross-bow portion is defined at the leading edge, and a plurality of buffering units are respectively disposed on the longitudinal arch portion and the cross-bow portion. The corrective insole having comfort and energy as described in claim 1, wherein the soft foam has a softness ranging from 25 to 35 degrees in Shore hardness. A corrective insole having both comfort and energy as claimed in claim 1, wherein the metal body is a titanium alloy.