ADJUSTABLE BIONIC PILLOW TOOL

Information

  • Patent Application
  • 20250098879
  • Publication Number
    20250098879
  • Date Filed
    September 26, 2023
    a year ago
  • Date Published
    March 27, 2025
    4 months ago
  • Inventors
    • Yu; Tianxiang
  • Original Assignees
    • Guangzhou Yijiayi Network Technology Co., Ltd.
Abstract
The present invention discloses an adjustable bionic pillow tool. The contact surface of the pillow core is provided with grooves and/or bumps. The grooves/bumps are arranged crosswise to form finger-like protruding support parts. The grooves or the bumps are provided crosswise on the contact surface of the pillow core, which can form a diffusion groove and can have ventilation and air permeability while having support. The staggered grooves or bumps form finger-like protrusions, which can reduce squeeze on blood vessels and tissues, solve the problem of compression in a traditional pillow tool after the pillow tool is compacted in a whole piece, and can form a massage effect on the contact part. A support layer of a bottom airbag is provided, so that the height, tilt degree, softness and hardness of the pillow tool can be conveniently adjusted by inflating and deflating the airbag.
Description
TECHNICAL FIELD

The present invention relates to the technical field of a home textile product, and specifically to an adjustable bionic pillow tool.


BACKGROUND

With the rapid development of a social economy, people have increasingly high requirements for a pillow, a lumbar pillow, and other pillow tools. A traditional pillow tool is mostly filled with soft materials (such as down feathers, cotton, sponge, particles), which do not have fixed shapes, and often can not provide targeted support for a human head, a neck, a lumbar, knees, and the like, in addition, the traditional pillow tool is compacted as a whole under the weight of a human body when being in use, so that the pillow toll has bad air permeability. There is a problem of compression of blood vessels or tissues, affecting the comfort level of the pillow tool.


SUMMARY

An objective of the present invention is to provide an adjustable bionic pillow tool to solve the problems in the prior art.


To realize the forgoing objective, the technical solution of the present invention provides an adjustable bionic pillow tool. The contact surface of a pillow core is provided with a plurality of grooves and/or bumps.


Further, when the plurality of grooves are provided on the contact surface of the pillow core, the grooves include the at least two groups of grooves in different directions. The grooves in the different directions are arranged crosswise to form a plurality of finger-like protruding support parts.


Further, when the plurality of bumps and the plurality of grooves are provided on the contact surface of the pillow core, a plurality of bump-interrupting grooves are provided on the plurality of bumps. The bump-interrupting grooves are provided in the different direction from directions in which the bumps are provided. The bump-interrupting grooves separate the bumps into the plurality of finger-like protruding support parts.


Further, the cross-sectional shapes of the grooves, the bumps, and the bump-interrupting grooves may be any of a rectangular shape, an inverted trapezoidal shape, a triangular shape, a semi-circular shape, and a semi-elliptical shape.


Further, the pillow tool further includes an airbag support layer. The airbag support layer is provided below the pillow core or provided in an opening groove of the pillow core. The airbag support layer includes at least one airbag and an air inflatable and deflatable assembly. Further, the pillow tool is a pillow, a lumbar pillow or a knee pillow.


Further, when the pillow tool is the pillow, the pillow core has a thickness at a central region less than that at two sides. The pillow core includes a base layer and a wing part. The central region of the wing part in a lengthwise direction is connected to the base layer. Overhanging parts are provided on the two sides of the wing part. A gap is provided on the contact surface of the base layer. A through hole is provided in the central region of the pillow core. The through hole passes through the pillow core. The pillowcase is made of an elastic fabric, provided at the outer part of the pillow core, and in contact with the surfaces of the base layer and the wing part. The pillowcase is provided with a central connection structure of the pillowcase in the region of the through hole. The pillowcase on the both sides of the through hole may pass through the through hole and are connected through the central connection structure. The airbags include a front airbag and a rear airbag. The front airbag and the rear airbag are provided on the both sides of the pillowcase in a width direction, are parallel with a lengthwise direction and provided in the opening groove of the base layer.


Further, the plurality of grooves are provided on the contact surfaces of the base layer and the wing part. A plurality of longitudinal grooves parallel with a width direction are provided in the region of the base layer in a width direction away from the wing part. A plurality of radial grooves are provided on the contact surface of the wing part and distributed in a radial direction pointing to the through hole. A plurality of transverse grooves parallel with a lengthwise direction are provided in the central regions of the longitudinal grooves in a lengthwise direction of the base layer and the radial grooves in the wing part. The transverse grooves are interlaced with the longitudinal grooves and the radial grooves respectively to form the plurality of finger-like protruding support parts.


In the present invention, the grooves or the bumps are provided crosswise on the contact surface of the pillow core, which can form a diffusion groove, and can play a role of ventilation and air permeability while playing a role of support. In addition, the staggered grooves or bumps form finger-like protrusions. A bionic finger-like protrusion is more adjustable compared to the complete pillow core, which can reduce squeeze on blood vessels and tissues, and solve the problem of compression in a traditional pillow tool after the pillow tool is compacted in a whole piece. The adaptation to the different parts of the human body can be realized, so that the pillow tool is more fit. In addition, the grooves or the bumps and the finger-like protrusion can form a massage effect on the contact part.


In the present invention, a support layer of a bottom airbag is provided, so that the height, tilt degree, softness and hardness of the pillow tool can be conveniently adjusted by inflating and deflating the airbag to adapt to the needs of different users or the same user in different periods/scenarios.





BRIEF DESCRIPTION OF DRAWINGS

In order to explain embodiments of the present invention more clearly, the following briefly introduces the drawings that need to be used in the embodiments. Obviously, the drawings in the following description are only some of embodiments of the present invention. A person skilled in the art can obtain other drawings based on these drawings without creative work.



FIG. 1 is a schematic diagram of a top surface of one embodiment of the present invention.



FIG. 2 is a schematic diagram of a cross-section of a groove one d a bump of one embodiment of the present invention.



FIG. 3 is a schematic diagram of a raised structure of one embodiment of the present invention.



FIG. 4 is a schematic diagram of one embodiment of a support layer of an airbag of the present invention.



FIG. 5 is a schematic diagram of a cross-section of another embodiment of a support layer of an airbag of the present invention.



FIG. 6 is a three-dimensional schematic diagram of a pillow core of one embodiment of the present invention as a pillow.



FIG. 7 is a schematic diagram of a cross-section of one embodiment of the present invention as a pillow.



FIG. 8 is an overall schematic diagram of one embodiment of the present invention as a pillow including a pillowcase.



FIG. 9 is a schematic diagram of the top surface of a pillow core of one embodiment of the present invention as a pillow.



FIG. 10 is a schematic diagram of a pillow core of one embodiment of the present invention as a lumbar pillow or a knee pillow.



FIG. 11 is a schematic diagram of a pillow core of another embodiment of the present invention as a lumbar pillow.



FIG. 12 is a schematic diagram of a pillow core of yet another embodiment of the present invention as a lumbar pillow.





DETAILED DESCRIPTION OF EMBODIMENTS

The following clearly and completely describe the technical solutions in embodiments of the present invention in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by a person skilled in the art without creative labor shall fall within the protection scope of the present invention.


As shown in FIGS. 1-4, the present invention relates to an adjustable bionic pillow tool, including a pillow core 1 and a pillowcase.


As shown in FIG. 2, the pillow core 1 is provided with a plurality of grooves and/or bumps C on the contact surface of the pillow core 1. The cross-sectional shapes of the grooves or the bumps C may have any of a rectangular shape, an inverted trapezoidal shape, a triangular shape, a semi-circular shape, a semi-elliptical shape, and may be other shapes.


The contact surface refers to the contact surface of the pillow core 1 with a human body when being in use, for example, the contact surface is the upper surface thereof when the pillow tool is used as the pillow, and may also include the side close to the human body. When the pillow tool is used as a lumbar cushion, the contact surface is generally a side in contact with the human body.


When the pillow core 1 is provided with a plurality of grooves on the contact surface, the plurality of grooves C on the contact surface of the pillow core includes the at least two groups of grooves in the different directions. The grooves in the different directions are arranged crosswise to form a plurality of finger-like protruding support parts.


As the cross-sectional shape of the grooves C may be the rectangular shape, the inverted trapezoidal shape, the triangular shape, the semi-circular shape, and the semi-elliptical shape, the finger-like protruding support part F may be a cubic structure and a trapezoidal structure.


More specifically, the grooves C includes a diffusion groove CA1, and a separation groove CA2.


The diffusion groove CA1 is provided on the contact surface of the pillow core 1. The plurality of diffusion grooves CA1 can be parallel with each other or radially distributed.


The separation groove CA2 is oriented in a direction different from the direction of the diffusion groove CA1. The separation groove CA2 is arranged crosswise with the diffusion groove CA1 to form the plurality of the finger-like protruding support parts F.


As shown in FIG. 3, when the plurality of bumps C are provided on the contact surface of the pillow core 1, a plurality of bump-interrupting grooves CA3 are provided on the plurality of bumps. The bump-interrupting grooves are provided in the different direction from directions in which the bumps are provided. The bump-interrupting grooves separate the bumps into the plurality of finger-like protruding support parts F.


As the cross-sectional shapes of the bumps and the bump-interrupting grooves may be the rectangular shape, the inverted trapezoidal shape, the triangular shape, the semi-circular shape, and the semi-elliptical shape, the finger-like protruding support part F may be the cubic structure and the trapezoidal structure.


To enhance comfort, a rounded chamfer may be provided on the edge of the contact surface of the finger-like protruding support part F to modify the shape of the upper part of the finger-like protruding support part F.


The depths of the grooves, the bumps, and the bump-interrupting grooves, and the spacings between each other may be equal or unequal. For the unequal case, the present application provides a change tendency. The depths of the grooves, the bumps, the bump-interrupting grooves, and/or the spacings between each other have a tendency to increase progressively from the center of the pillow core towards the edge of a bedding, or may be other tendencies.


The finger-like protruding support parts F are distributed in a part of regions of the pillow core 1, for example, the finger-like protruding support part F is provided for the region in contact with a human neck when the pillow tool is used as a pillow. The finger-like protruding support part F is provided for the region in contact with a human lumbar when the pillow tool is used as a lumbar pillow.


As shown in FIGS. 4 and 5, the pillow tool further includes an airbag support layer 11.


The pillow core 1 is made of a memory foam, silica gel or a sponge.


The airbag support layer 11 is provided in the lower part of the pillow core 1. The airbag support layer 11 includes at least one airbag 111 and an air inflatable and deflatable assembly.


The airbag 111 is provided in the lower part of the pillow core 1 or in an opening groove in the pillow core 1.


The air inflatable and deflatable assembly can be a common air inflatable and deflatable structure, such as a simple valve that can be opened and closed, as well as an air pump, a valve and the like related to electric or manual air inflation, the specific structure and compositions of which belong to the common knowledge in the art. The air inflation and deflation of the airbag 111 by the air inflatable and deflatable assembly can adjust the softness, hardness, and height of the airbag 111.


One or the plurality of airbags 111 may be disclosed.


As shown in FIGS. 6-9, when being used as the pillow, the present application provides a targeted design of the pillow core. Specifically, the pillow core includes a base layer T11, a wing part T12. The surfaces of the base layer T11 and the wing part T12 are curved surfaces with soft transition.


The wing part T12 has the same length as the base layer T11, or the wing part T12 has a length slightly larger or smaller than that of the base layer T11 and a width of 40%-60% of that of the base layer, and is provided on one side of the base layer T11 in a width direction. The central region of the wing part T12 in a lengthwise direction is connected to the base layer T11 and provided with overhanging parts on the two sides. A gap is provided on the upper surface of the base layer T11.


The overhanging parts on the two sides of the wing part T12 account for 30%-50% of a total length of the wing part. The wing part T12 is a symmetrical structure. The symmetrical axis of the symmetrical structure is the midline of the base layer T11 in a lengthwise direction.


The overhanging regions on the two sides of the wing part T12 are higher than the central region.


The base layer T11 and the wing part T12 may be integrally molded or may be two parts. When the base layer T11 and the wing part T12 are two parts, the base layer T11 and the wing part T12 are connected to each other by bonding or plug fit.


The base layer T11 is projected in a horizontal plane as a rounded rectangle with rounded chamfers provided on the two side edges in a lengthwise direction. The height of one side of the base layer connected to the wing part T12 is lower than that of the other side.


The wing part T12 has soft transition in the region of connection to the base layer T11, thereby forming a curved surface.


In the length and width directions, the pillow core has a thickness at central region less than that at both sides, i.e. the thickness of the central region of the base layer T11 or the thickness of the region of the superposition of the base layer T11 and the wing part T12 located on the pillow core in the wide central region is less than the thickness of the other side of the base layer T11, and is less than the thickness of superposition of the wing part T12 and the base layer T11.


A through hole T14 is provided in the central region of the pillow core. The through hole T14 passes through the pillow core, i.e. the through hole T14 passes through the base layer T11 or the region of superposition of the base layer T11 and the wing part T12.


The base layer T11 and the wing part T12 are made of a memory foam.


The pillowcase 2 is made of an elastic fabric, provided outside the pillow core 1, and in contact with the surfaces of the base layer T11 and the wing part T12. When the pillowcase is used, the upper and lower surfaces of the overhanging part of the wing part T12 are covered by the pillowcase 2, and the upper and lower surfaces of the base layer T11 below the overhanging part are also covered by the pillowcase 2.


The pillowcase 2 is provided with a central connection structure T141 of the pillowcase in the region of the through hole T14. The pillowcase 2 on the two sides of the through hole T14 may pass through the through hole T14 with the central connection structure T141. The central connection structure T141 of the pillowcase can be a button or a knot. After being fixed, the button or the knot can make the pillowcase 2 more taut with a better shape constraint, which may particularly effectively enhance the supporting effect of the overhanging part of the wing part T12.


As shown in FIGS. 4 and 5, further, the contact surface of the base layer T11 and the wing part T12 is provided with the plurality of grooves C. A plurality of longitudinal grooves C1 parallel with the width direction are provided in the region of one side of the base layer T11 in a width direction away from the wing part T12. The radial grooves C2 in the contact surface of the wing part T12 are distributed in a radial pattern pointing to the through hole T14. A plurality of transverse grooves C3 parallel with the lengthwise direction are provided in the central regions of the longitudinal grooves C1 in the lengthwise direction of the base layer T11 and the radial groove C2 of the wing part T12. The transverse grooves C3 are interlaced with the longitudinal grooves C1 and the radial grooves C2, respectively, to form the plurality of finger-like protruding support parts F.


As shown in FIG. 6, when the pillow tool is used as a pillow, the present invention provides a dual-airbag solution. The airbag includes a front airbag T131 and a rear airbag T132. The front airbag T131 and the rear airbag T132 are provided on the two sides of the pillow core 1 in a width direction, parallel to a lengthwise direction, and provided in an opening groove of the base layer T11.


The present application can also be used in other scenarios including, but not limited to, a lumbar pillow, a knee pillow, and various other types of back cushions, as shown in FIGS. 10-12. The shape of the pillow core, the grooves and/or the bumps, the region of the finger-like protruding support part F can be suitably selected as desired.


It should be noted that the terms used here are only for describing specific embodiments, and are not intended to limit the exemplary embodiments according to the present application. As used herein, a singular form is intended to include a plural form as well, unless a context clearly indicates otherwise. It should also be understood that when the terms “comprising” and/or “including” are used in this specification, these terms indicate the presence of a feature, a step, an operation, a device, an assembly, and/or a combination thereof.

Claims
  • 1. An adjustable bionic pillow tool, comprising a pillow core and a pillowcase, wherein a plurality of grooves and/or bumps are provided on a contact surface of the pillow core.
  • 2. The adjustable bionic pillow tool according to claim 1, wherein when the plurality of grooves are provided on the contact surface of the pillow core, the grooves comprise the at least two groups of grooves in different directions, and the grooves in the different directions are arranged crosswise to form a plurality of finger-like protruding support parts.
  • 3. The adjustable bionic pillow tool according to claim 1, wherein when the plurality of bumps and the plurality of grooves are provided on the contact surface of the pillow core, a plurality of bump-interrupting grooves are provided on the plurality of bumps, the bump-interrupting grooves are provided in different direction from directions in which the bumps are provided, and the bump-interrupting grooves separate the bumps into the plurality of finger-like protruding support parts.
  • 4. The adjustable bionic pillow tool according to claim 1, wherein cross-sectional shapes of the grooves and the bumps are capable of being any of a rectangular shape, an inverted trapezoidal shape, a triangular shape, a semi-circular shape, and a semi-elliptical shape.
  • 5. The adjustable bionic pillow tool according to claim 3, wherein the cross-sectional shapes of the grooves and the bumps, and cross-sectional shapes of the bump-interrupting grooves are capable of being any of the rectangular shape, the inverted trapezoidal shape, the triangular shape, the semi-circular shape, and the semi-elliptical shape.
  • 6. The adjustable bionic pillow tool according to claim 1, wherein the pillow tool further comprises an airbag support layer, the airbag support layer is provided below the pillow core or provided in an opening groove of the pillow core, and the airbag support layer comprises at least one airbag and an air inflatable and deflatable assembly.
  • 7. The adjustable bionic pillow tool according to claim 5, wherein the pillow tool is a pillow, a lumbar pillow or a knee pillow.
  • 8. The adjustable bionic pillow tool according to claim 6, wherein when the pillow tool is the pillow, the pillow core has a thickness at a central region less than that at two sides, the pillow core comprises a base layer and a wing part, a central region of the wing part in a lengthwise direction is connected to the base layer, overhanging parts are provided on two sides of the wing part, a gap is provided on a contact surface of the base layer; a through hole is provided in the central region of the pillow core, the through hole passes through the pillow core; the pillowcase is made of an elastic fabric, provided at an outer part of the pillow core, and in contact with surfaces of the base layer and the wing part, the pillowcase is provided with a central connection structure of the pillowcase in a region of the through hole, the pillowcase on both sides of the through hole is capable of passing through the through hole and being connected through the central connection structure; the airbags comprise a front airbag and a rear airbag, and the front airbag and the rear airbag are provided on both sides of the pillowcase in a width direction, are parallel with a lengthwise direction and provided in the opening groove of the base layer.
  • 9. The adjustable bionic pillow tool according to claim 7, wherein the plurality of grooves are provided on contact surfaces of the base layer and the wing part, a plurality of longitudinal grooves parallel with a width direction are provided in a region of the base layer in a width direction away from the wing part; a plurality of radial grooves are provided on the contact surface of the wing part and distributed in a radial direction pointing to the through hole; a plurality of transverse grooves parallel with a lengthwise direction are provided in central regions of the longitudinal grooves in a lengthwise direction of the base layer and the radial grooves in the wing part; the transverse grooves are interlaced with the longitudinal grooves and the radial grooves respectively to form the plurality of finger-like protruding support parts.