RU2487080C2 - Fusion-bonded damping supporting device - Google Patents

Abstract

FIELD: personal use articles.

SUBSTANCE: fusion-bonded damping supporting device contains an upper damping material layer, a damping material substrate layer and at least padding material fixed between the upper damping material layer and the damping material substrate layer. The padding material is subjected to external pressing at a high temperature together with the upper layer and the substrate layer, with the upper layer and the substrate layer melting and bonded into an integral whole. The thermal treatment results in formation of lines or areas of thermal bonding with geometric patterns on the upper layer as well as inner pouches in the upper layer, containing the padding material, to ensure damping and shape modelling effects in accordance with this invention. The implementation versions of the fusion-bonded damping supporting device such as a seat cushion, a back cushion, a sofa cushion or a bed pad, ensure a beneficial actions on the consumer body.

EFFECT: resection of anxiety and impact load perception and prevention of collisions.

10 cl, 10 dwg

Description

The technical field of the present invention

The present invention generally relates to a thermally pressed shock-absorbing support device, in particular to a shock-absorbing support device made by heat pressing, in which at least one supporting stuffing material is placed in pockets formed between the upper layer of shock-absorbing material and the substrate layer of the shock-absorbing material, to provide effective support to the consumer’s body, including reducing anxiety when the invention is still used illustrative embodiments, as a mattress pad, seat cushion, back cushion or pillow couch.

BACKGROUND OF THE INVENTION

Currently, there are a large number of commercially available seat cushions and back cushions, the design of which contains a foam element and a fabric element connected together by external pressing at high temperature. There are two significant problems associated with products made in this way of production. On the one hand, when the foam element is dense, the shock-absorbing properties of the product are limited, which leads to pain. On the other hand, when the foam element is soft, the obvious cushioning properties are nullified by the fact that the body "drowns" in the foam, which increases the consumer's inconvenience.

Given these circumstances, attempts have been made to use stitching as a method of joining cushioning materials and fabric layers to improve the cushioning properties of a cushioning support article. Although such a joining method can reduce collisions to a certain extent and improve ways to prevent such collisions, problems arise in that the friction between the skin of the consumer and the seam causes pain on the skin, the formation of irritation on the skin, and damage is not excluded or inflammation of the skin. In addition, the visible seam on the surface of the fabric reduces the desire to buy from the consumer due to the effect on the appearance and functionality of the product.

In addition to the above disadvantages, there have been cases where the seam cushioning support device made by sewing weakened or opened, which led to the displacement of the cushioning material and caused discomfort to consumers. Indeed, displacement of the cushioning material can significantly reduce the desired beneficial effect of the cushioning material on the body of the consumer.

In view of the foregoing, a preferred solution is to propose a shock absorbing support device made by thermo-pressing in which shock absorbing or modeling substances are connected together with the support device. Such a product can not only provide a stronger assembly and more convenient support, but also convex forms of shock-absorbing materials to support the body of the consumer.

SUMMARY OF THE INVENTION

Thus, it is an object of the present invention to provide a thermally pressed shock absorbing support device. The present invention uses thermal pressing as a means of securing a large amount of cushioning material or modeling substance in the inner pockets located between the upper layer of cushioning material and the substrate layer of the cushioning material.

Another object of the present invention is to provide a thermally pressed shock-absorbing support device comprising a coating layer. The specified coating layer is applied over the top layer of cushioning material. The covering layer can be made of fabric, which allows for higher competitiveness.

Another objective of the present invention is the provision of a thermally pressed shock-absorbing support device in which the top layer of the shock-absorbing material and the substrate layer of the shock-absorbing material can be used as a storage pocket and can be coated with a protective layer. The protective layer is removable for cleaning.

The thermally pressed shock-absorbing support device corresponding to the above objectives comprises a top layer of shock-absorbing material, a substrate layer of shock-absorbing material and at least one packing material, with the packing material being placed at a predetermined location between the top layer and the backing layer. Thermal pressing acts on pre-installed places on the top layer and the substrate layer, while these places are located near the packing material. This design ensures the absence of mechanical pressure during thermal pressing on the stuffing material. In addition, thermal pressing provides melting and a strong connection of the areas affected by the pressing, which also forms areas depressed during thermal pressing. After hardening of the entire supporting device, the top layer and the substrate layer are tightly attached to each other and an inner pocket is formed to accommodate the packing material; when the present invention is applied to a mattress pad, seat cushion or back cushion, the stress and collision caused when a consumer sits down and lays on a support device can be compensated by the functionality provided by the padding and the inside pockets, including support, cushioning, stress reduction and giving forms.

A brief description of the graphic material

The invention will now be described in more detail with reference to the illustrations given in the figures. Similar or similar parts are denoted by like reference numbers, wherein:

1 is a cross-sectional view showing a configuration of components showing elements of an embodiment of a thermally pressed shock-absorbing support device cooperating with a thermal press;

2A, 2B are schematic views of a first preferred embodiment of a thermally pressed shock absorbing support device;

Figure 3 shows a schematic cross-sectional view of a configuration of components of a first preferred embodiment of a thermally pressed shock-absorbing support device;

Figure 4 shows a schematic cross-sectional view of a second embodiment of a configuration of components of a thermally pressed shock-absorbing support device;

5 is a schematic cross-sectional view of a third embodiment of a configuration of components of a thermally pressed shock-absorbing support device;

Figure 6 shows a General view of a fourth embodiment of a configuration of components of a thermally pressed shock-absorbing support device;

On figa, 7B depicts General views of a thermally pressed shock-absorbing support device made in the form of a seat cushion having a first and second shape;

Fig. 8 shows a general view of a sofa cushion made of a thermally pressed shock-absorbing support device;

On figa, 9B, 9C, 9D depicts General views of the back cushion made of a thermally pressed shock-absorbing support device; and

Figure 10 shows a General view of a mattress cover made of thermally pressed shock-absorbing support device.

Detailed Description of Preferred Embodiments

According to the graphic materials in figures 1, 2A, 2B, and 3 are shown: a schematic view depicting the interaction of the respective components of the first preferred embodiment of a thermally pressed shock-absorbing support device with components of a thermal press, a schematic view, a general view and a schematic cross-sectional view of the present invention in the form of first preferred embodiment. According to the above figures, the thermally pressed shock-absorbing support device comprises:

the covering layer 1, where the covering layer has a first main surface 11 and a second main surface 12, while the first main surface 11 of the covering layer 1 has a quilted surface;

the upper layer of cushioning material 3, where the upper layer of cushioning material has a first main surface 31 and a second main surface 32, while the second main surface 12 of the covering layer 1 is attached to the first main surface 31 of the upper layer of the cushioning material 3;

non-slip layer 2, where the non-slip layer has a first major surface 21 and a second major surface 22, wherein the first major surface 21 of the non-slip layer 2 is non-slip;

a substrate layer of the cushioning material 9, where the substrate layer of the cushioning material has a first main surface 91 and a second main surface 92, where the second main surface 22 of the non-slip layer 2 is attached to the second main surface 92 of the substrate layer of the cushioning material 9;

at least one packing material 4, which is attached to a predetermined location located between the second main surface 32 of the upper layer of the cushioning material 3 and the first main surface 91 of the substrate layer of the cushioning material 9.

According to the production technology of the thermally pressed shock-absorbing support device, the aforementioned covering layer 1, the upper layer of the shock-absorbing material 3, the non-slip layer 2, the substrate layer of the shock-absorbing material 9 and the packing material 4 are joined together by thermal pressing, while the thermal pressing process is carried out by means of a thermal press 5 acting on the first main surface 11 of the covering layer 1 and the first major surface 21 of the non-slip layer 2, which binds the padding material 4, as a result of which both the upper layer of the cushioning material 3 and the substrate layer of the cushioning material 9 are fused to each other. Until the temperature drops, heat-connecting lines or regions 111 with defined geometric shapes are formed on the cover layer 1 and the upper layer of the cushioning material 3 in addition to the inner pockets 112, formed by this, in which the supporting printed material 4 is enclosed.

In one characteristic aspect, the cover layer 1 is made of fabric, fabric or leather.

In another characteristic aspect, the non-slip layer 2 is used to reduce a predetermined sliding characteristic, and the non-slip layer 2 is made of fabric, fabric, leather or similar non-slip material, which can provide the same functional properties of reducing slip.

In addition, the upper layer of the cushioning material 3 and the substrate layer of the cushioning material 9 are made of polyurethane (PU) foam. PU foam has a chemical property of becoming liquid and viscous when heated to a certain temperature. This property gives the advantage of tightly bonding the upper layer of the cushioning material 3 with the substrate layer of the cushioning material 9, and allows plastic indentation on the upper layer 3 and the substrate layer 9 when the PU foam cools in places where deformations are formed after thermal pressing. Hardened PU foam retains this structural configuration after cooling.

In another characteristic aspect, the packing material 4 is made of gels, latex, silica gels, or other elastomeric materials in order to provide the packing material 4 with the ability to distribute any perceived load, as a result of which an embodiment of the present invention capable of supporting the function to absorb mechanical vibration will be provided. , dissipate external pressure and absorb shock. In addition, the aforementioned elastomeric materials, depending on the requirements of the consumer, can be made with various configurations of surface relief, such as cobwebs, mesh, blocks, perforations, convex bubbles or extruded patterns.

In another aspect, the packing material 4 is made of memory foam, which allows the packing material 4 to change its structural shape depending on the body temperature of the consumer. More precisely, this means that the packing material 4 is sensitive to the changes obtained when using the support device of the present invention.

In another aspect, the thermal press 5 comprises a male fastening member 51 and a female fastening member 52, where the female fastening member 52 has a flat surface 521, and one surface of the male fastening member 51 has a large number of corrugated areas 511, each of which has a size corresponding to a pad 4. The male fastening element 51 is pressed against the female fastening element 52 in the process of thermal pressing, while the male fastening element 51 moves in this way to act on the first main surface 11 of the cover layer 1, while the female fastening element 52 moves in the opposite direction so as to act on the first main surface 21 of the non-slip layer 2. After completion of the pressing process on the first main surface 11 of the cover layer 1, a large number of lines or regions 111 of thermal connection with geometric shapes are formed, while the packing material 4 presses upward on the cover layer 1 and the top layer cushioning material 3 in order to form an inner pocket 112, limited by adjacent lines or areas 111 of the thermal connection.

In addition, the packing material 4 described here is partially located between the top layer of the cushioning material 3 and the substrate layer of the cushioning material 9, which provides a small weight and ease of handling.

Obviously, the aforementioned support device can be further processed to obtain the configuration necessary for use in various ways, including, but not limited to, a mattress pad, seat cushion, or sofa cushion.

Referring to FIG. 4, a schematic cross-sectional view of a thermally pressed shock absorbing support device according to a second preferred embodiment is shown. Obviously, the difference between FIG. 3 and FIG. 4 provides a way to solve a similar problem, taking into account the possibility that the materials making up the packing material 4, which in this case are gels or other oiled materials, can leak in areas including the upper a layer of cushioning material 3. For this, the solution proposed in FIG. 4 provides for the introduction of a layer of thin film 30 between the packing material 4 and the upper layer of cushioning material 3. A layer of thin film 30 is provided for coating thoron packing material 4, thereby preventing oil from entering the passage and out of the packing material 4 in the upper layer of the cushion material 3.

In one aspect of a second preferred embodiment of the present invention, the thin film layer 30 may be configured to completely cover the packing material 4 before placing the packing material 4 in the inner pocket 112.

In one characteristic aspect, the thin film layer 30 is made of a thin film of thermoplastic polyurethane (TPU) or a thin film of polyethylene (PE).

Turning to FIG. 5, a schematic view of a third embodiment of a thermally pressed shock absorbing support device is shown. Obviously, the difference between FIG. 3 and FIG. 4 is to include a stack consisting of a cushioning material 41, which is located on top of the modeling material 42, which gives the stuffing material 4 functionality, including, but not limited to, the ability to maintain, absorb vibration, disperse external pressure, absorb the load and change shape under the influence of heat.

In one characteristic aspect, the cushioning agent 41 is made of gels, latex, silica gels or other elastomeric materials. Modeling agent 42 may be made of memory foam. In practice, the use of the aforementioned materials can be carried out by methods, including a method where the shock absorbing substance 41 provides means for sensing and distributing stress, and the modeling substance 42 changes its shape under the influence of elevated temperature. Accordingly, this can provide the desired advantages of the present invention, including comfortable support and stress reduction around the neck, back, lower back and legs of the consumer when using a thermally pressed shock-absorbing support device in furniture, including, but not limited to, a mattress pad, seat cushion or back cushion.

In another aspect, the relative position of the cushioning substance 41 and the modeling substance 42 within a stack containing both substances may vary as necessary.

Turning to FIG. 6, a general view of a fourth embodiment of a thermally pressed shock absorbing support device is shown. Obviously, the difference between FIGS. 1-5 and the aforementioned figure is that the first main surface 31 of the upper layer of the cushioning material 3 is not attached to the covering layer 1, and also that the second main surface 92 of the substrate layer of the cushioning material 9 is not attached to the non-slip layer 2. Accordingly, at least one line or thermal bonding region 311 is formed on the first major surface 31 of the upper layer of the cushioning material 3 when the upper layer of the cushioning material 3 is thermally interacts with the substrate layer of the cushioning material 9, as a result of which an inner pocket 312 is formed in which the packing material 4 is located. Finally, a protective layer 10 can be included to surround the packing material 4 immersed in the upper layer of the cushioning material 3, as well as the cushioning substrate layer 9. The bottom surface of the protective layer is equipped with a non-slip layer to prevent slipping.

In a characteristic aspect, the stuffing material 4 is made of fabric, canvas or leather.

On figa, 7B depicts General views of a thermally pressed shock-absorbing support device having the form of a seat cushion. As can be seen from the figures, the thermally pressed shock-absorbing support device of the present invention may have a seat cushion configuration. In this embodiment, one line or thermal connection region 111 on the cover layer 1 is formed in the region of the packing material 4 on the surface of the seat cushion 6 (as shown in FIG. 7A), or a large number of thermal connection lines or areas 111 on the cover layer 1 are formed in the region of the stuffing material 4 on the surface of the seat cushion 6 (as shown in FIG. 7B); the above configurations allow you to create a large number of inner pockets 112 on the cover layer 1 of the seat cushion 6. Each inner pocket 112 formed in this configuration includes the stuffing material 4, while the stuffing material 4 has a predetermined configuration to support the hips (i.e. . femur) and the pelvis (ie, pelvic bones) of the consumer. Accordingly, according to the present invention, the support of the weight of the consumer is performed by the upper layer of the cushioning material 3 and the substrate layer of the cushioning material 9, when the consumer is in a calm position; in addition, it is obvious that the installation of one or more printed materials 4 and inner pockets 112 can additionally provide support and cushioning of loads and stresses caused by the femur and pelvic bones of the consumer.

Figures 4 and 5 should be taken into account when considering Fig. 8, which shows a general view of a sofa cushion made of a thermally pressed shock-absorbing support device. The above figures depict an embodiment of a thermally pressed shock-absorbing support device in the form of a sofa cushion 7. A sofa cushion 7 consists of a seat 71 and a back 72. A large number of lines or regions 111 of thermal connection with geometric shapes, as well as a large number of internal pockets 112 are formed in the region of the printed material 4 on the surface of the seat 71 by thermal pressing. Each inner pocket 112 formed in this configuration comprises a stuffing material 4, while the stuffing material 4 has a predetermined configuration to support two consumer femurs and two pelvic bones; in addition, a large number of lines or regions 111 of thermal connection with geometric shapes, as well as a large number of inner pockets 112, are formed in the region of the packing material 4 on the surface of the backrest 72 by means of thermal pressing. Each inner pocket 112 formed in this configuration encloses the stuffing material 4, while the stuffing material 4 has a predetermined configuration to support the neck, lower back and back of the consumer.

Accordingly, it is obvious that the stuffing material 4 can support the neck, back, lower back, hips and pelvis of the consumer, respectively, when the consumer is in a sitting position and rests his back on the back 72 of the cushion of the sofa 7. Since the purpose of the present invention is to provide comfort in situations such as sitting, tension and loads caused when the consumer sits down and lays on the sofa cushion 7, can be offset by the functionality of the stuffing material 4 and the inner pockets 112, including support, mortizatsiyu, pressure reduction and shaping.

In a characteristic aspect, there is a fold region 73 in the center of the cushion of the sofa 7 for separating the seat 71 and the backrest 72. This allows them to be freely folded by the consumer along the fold region 73, for example in the shape of the letter “L”, in order to allow the consumer to sit on the seat 71. while leaning his back on the back 72.

FIGS. 4 and 5 should be considered when considering FIGS. 9A-9D, which depict general views of various embodiments of a back cushion made of a thermally pressed shock-absorbing support device. The above figures depict embodiments of a thermally pressed shock-absorbing support device in the form of a back cushion 8. A large number of lines or areas 111 of thermal connection with geometric shapes, as well as a large number of inner pockets 112 are formed in the region of the packing material 4 on the surface of the back cushion 8 by means of thermal pressing. Each inner pocket 112 formed in this configuration encloses the packing material 4; as shown in figa, the inner pockets 112 can be created by the pressure applied to the part of the back cushion 8 near the lower back of the consumer. Accordingly, the advantages of cushioning and modeling the shape of the packing material 4 and the corresponding inner pocket 112 are obvious, which are manifested in the reduction of stress and collisions that are felt by the consumer in the lumbar region when the consumer is in a sitting position.

As shown in FIG. 9B, the packing material 4 and inner pockets 112 are formed near the waist of the consumer and near the upper back of the consumer. Accordingly, the advantages of cushioning and modeling the shape of the packing material 4 and the corresponding inner pocket 112 are obvious, which are manifested in the reduction of stress and collisions that are felt by the consumer in the lumbar region and in the upper back when the consumer is in a sitting position.

As shown in figs, the stuffing material 4 and the inner pockets 112 can be created by pressure applied to the part of the back cushion 8 on the left and right sides of the consumer's spine, as well as near the neck of the consumer. Accordingly, the advantages of cushioning and modeling the shape of the packing material 4 and the corresponding inner pocket 112 are obvious, which are manifested in the reduction of stress and collisions that are felt by the consumer on the left and right sides of the consumer’s spine, and also near the consumer’s neck when the consumer is in a sitting position.

As shown in FIG. 9D, the packing material 4 and the inner pockets 112 can be created by the pressure applied to the cushion portion of the backrest 8 on the left and right sides of the consumer’s spine. Accordingly, the advantages of cushioning and modeling the shape of the packing material 4 and the corresponding inner pocket 112 are obvious, which are manifested in the reduction of stress and collisions that are felt by the consumer on the left and right sides of the consumer’s spine when the consumer is in a sitting position.

4 and 5 should be taken into account when considering figure 10, which shows a General view of a variant of implementation of the mattress cover made of a thermally pressed shock-absorbing supporting device. The above figures depict an embodiment of a thermally pressed shock-absorbing support device in the form of a mattress cover 20. A large number of lines or regions 111 of thermal connection with geometric shapes, as well as a large number of inner pockets 112 are formed in the region of the packing material 4 on the surface of the mattress cover 20 by thermal pressing. Each inner pocket 112 formed in this configuration includes the stuffing material 4, the stuffing material 4 has a predetermined configuration to support the neck, two sides of the spine, lower back and thighs of the consumer; accordingly, the advantages of cushioning and modeling the shape of the packing material 4 and the corresponding inner pocket 112 are obvious, which are manifested in the reduction of tension and collisions that are felt by the consumer in the neck, spine, lower back, and thighs when the consumer is in a supine position.

In one aspect, the packing material 4 shown in Figs. 7A, 7B, Figs. 8A-8D, Figs. 9 and 10, may consist only of cushioning material 41, which is made of gels, latex, silica gels or other elastomeric materials, either the packing material 4 may consist only of a modeling substance 42, which is made of memory foam, or the packing material 4 may consist of a stack comprising a cushioning substance 41 and a modeling substance 42.

In one aspect, a preferred amount of the above-described lines or regions of a thermal connection depicted in FIGS. 1-10 is from 1 to 30.

It should be understood that the aforementioned preferred embodiments of the present invention provide the following advantages compared with prior art technologies:

1. The present invention uses thermal pressing as a means of connecting a large amount of cushioning material or modeling substance in the inner pockets located between the upper layer of cushioning material and the substrate layer of cushioning material.

2. A coating layer is applied over the top layer of the cushioning material. The covering layer can be made of fabric, which provides greater competitiveness.

3. The top layer of cushioning material and the substrate layer of cushioning material can be used as storage pockets and can be coated with a protective layer. The protective layer is removable for cleaning.

4. Thermal pressing used in the present invention provides an improved method of joining two layers of shock absorbing materials, which effectively prevents unwanted movement of the packing material.

5. The present invention can be in a mattress pad, seat cushion or sofa cushion, while the placement and amount of stuffed material can be adjusted in order to fit the body parts of the consumer.

The preferred embodiment described above is provided for descriptive purposes only and cannot be used to limit the appended claims. Various modifications and changes will be apparent to those skilled in the art that go beyond the examples disclosed in the embodiments and methods of use disclosed and described herein and without departing from the spirit and scope of the following claims.

Item Numbers

one covering layer eleven first major surface of the coating layer 111 line or region of thermal bonding on the overburden 112 inner pocket formed from a covering layer for accommodating the stuffing material 12 second main surface of the coating layer 2 non-slip layer 21 first major non-slip surface 22 second major non-slip surface 3 top layer of cushioning material 31 first major surface of the top layer of cushioning material 311 thermal line or area on the top layer of cushioning material 312 inner pocket formed from the top layer of cushioning material to accommodate the stuffing material 32 second main surface of the upper layer of cushioning material four stuffing material 41 shock absorbing substance 42 modeling substance 5 thermal press 51 male thermopress fastener 511 grooved area on male thermal press fastener 52 female thermopress fastener 521 flat surface of the enclosing fastener thermopress 6 seat cushion 7 sofa cushion 71 sofa cushion seat 72 sofa back cushion 73 fold area 8 back cushion 9 cushioning material backing layer 91 first major surface of the pad layer of the cushioning material 92 second main surface of the cushioning material backing layer 10 protective layer twenty mattress pad thirty thin film layer

Claims (10)

1. A thermally pressed shock-absorbing support device comprising:
a top layer of cushioning material having a first major surface and a second major surface;
a pad layer of a cushioning material having a first major surface and a second major surface;
at least one stuffing material attached at a predetermined location located between the second major surface of the upper layer of the shock-absorbing material and the first major surface of the substrate layer of the shock-absorbing material; and
at least one line or region of the thermal connection, configured as a whole in a geometrical shape, and at least one inner pocket, which generally comprises packing material, where the line or region of the thermal connection and the inner pocket are formed in the upper a layer of cushioning material as a result of thermal pressing of the upper layer of cushioning material, the substrate layer of the material and the packing material, while the upper layer of cushioning material is firmly connected with the substrate layer rtiziruyuschego material along the line or area of thermal bonding. 2. The thermally pressed shock-absorbing support device according to claim 1, characterized in that it further comprises a protective layer, wherein the protective layer comprises an upper layer of shock-absorbing material in which the packing material is enclosed, and a substrate layer of the shock-absorbing material. 3. The thermally pressed shock-absorbing support device according to claim 1, characterized in that the packing material contains a shock-absorbing substance. 4. The thermally pressed shock-absorbing support device according to claim 1, characterized in that the packing material contains a substance modeling the shape. 5. The thermally pressed shock-absorbing support device according to claim 1, characterized in that the packing material comprises a stack including a shock-absorbing substance and a shape-modeling substance. 6. The thermally pressed cushioning support device according to claim 1, characterized in that the upper layer of cushioning material and the substrate layer of cushioning material are connected and further configured to form a seat cushion, sofa cushion, back cushion or mattress pad. 7. The thermally pressed shock-absorbing support device according to claim 1, characterized in that it further comprises a layer of thin film, while the layer of thin film covers the packing material. 8. A thermally pressed shock-absorbing support device comprising:
a coating layer, wherein the coating layer has a first major surface and a second major surface;
an upper layer of cushioning material, wherein the upper layer of cushioning material has a first main surface and a second main surface, and a second main surface of the coating layer is attached to the first main surface of the upper layer of cushioning material;
non-slip layer, while the non-slip layer has a first main surface and a second main surface, and the first main surface of the non-slip layer contains a non-slip surface;
a cushioning material substrate layer, wherein the cushioning material substrate layer has a first main surface and a second main surface, and a second main surface of the non-slip layer is attached to the second main surface of the cushioning material substrate layer;
at least one stuffing material attached at a predetermined location located between the second major surface of the upper layer of the shock-absorbing material and the first major surface of the substrate layer of the shock-absorbing material; and
at least one line or region of the thermal connection, configured as a whole in a geometrical shape, and at least one inner pocket, which generally comprises packing material, where the line or region of the thermal connection and the inner pocket are formed in the upper a layer of cushioning material as a result of thermal pressing of the upper layer of cushioning material, the substrate layer of the material and the packing material, while the upper layer of cushioning material is firmly connected with the substrate layer rtiziruyuschego material along the line or area of thermal bonding. 9. The thermally pressed shock-absorbing supporting device according to claim 8, characterized in that the packing material contains shock-absorbing material. 10. Thermally pressed shock-absorbing supporting device according to claim 8, characterized in that the packing material contains a shape-modeling material.

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