CN203776537U - All-round breathable cool pillow - Google Patents

Abstract

An omnibearing ventilating cool pillow is composed of a pillow core consisting of a cold moisture-absorbing and sweat-releasing layer and a stereo air-permeable net layer, several ventilating slots arranged alternatively on said pillow core and with several ventilating holes in said slots, and a ventilating layer with tension-resisting and ventilating effect adhered to the top surface of pillow core, so when the pillow core is pressed by the head of sleeper, said ventilating layers are mutually pulled and pulled to reduce the deformation of compressed ventilating slots to minimum, resulting in that said ventilating slots still have the space for hot air to flow and the hot air can be smoothly exhausted from said ventilating slots, the pillow core can keep good ventilation effect when being pressed and deformed.

Description

All-round breathable cool pillow

technical field

The utility model relates to a pillow core which is provided with ventilation grooves and ventilation holes in the vertical and horizontal directions, and a breathable layer is fixed on the surface of the pillow core, so that when the pillow core is pressed by weight, the ventilation groove is collapsed and deformed. Reduced to a minimum, so that the effect of ventilation and heat dissipation can still be kept smooth.

Background technique

To sleep is to relax completely. A good pillow can disperse the pressure on the neck, achieve real relaxation, and help improve the quality of sleep. Currently, the pillow cores of pillows made of latex or similar materials on the market have high release properties. High pressure, super breathable characteristics, durable and not easy to deform, etc., at the same time, its shape design can strengthen the support of the cervical spine, and can actually obey the curve of the cervical spine, so that the shoulder and neck muscles can be fully rested, so that the muscles of the whole body can be fully rested, effectively improving Sleep quality.

In addition to being covered with ventilation holes, the surface of other latex pillows has several rows of ventilation grooves, or the ventilation holes are arranged on the ventilation grooves. The main purpose is to enhance ventilation and ventilation through the ventilation holes and ventilation grooves. effect, making it less stuffy and more dry and comfortable during long-term sleep.

At the same time, in order to avoid soiling the pillow core during use, a pillowcase is usually placed on the pillow core, or the pillow core is first covered with an anti-pollution cover, and then the pillow case is covered. Of course, the anti-pollution cover or the pillow case itself does not have a very good ventilation effect. Therefore, there are air holes and air grooves on the above-mentioned pillow, in an attempt to enhance the effect of ventilation and ventilation, but when the user's head leans on the pillow, due to the pressure of the head weight, the oppressed air flow will be caused. The two sides of the ditch collapsed first, resulting in a smaller or even blocked space for guiding the hot air, which prevents the hot air from flowing out smoothly and reduces the ventilation effect of the pillow sharply, making it impossible to truly exert the ability of ventilation and heat dissipation. .

Utility model content

The purpose of this utility model is to provide an all-round breathable and cool pillow, so as to improve the problem that when the pillow core of the pillow is compressed, the ventilation channel that originally guides the hot air will be severely deformed and collapsed, hindering the flow and discharge of the hot air. .

In order to achieve the above purpose, the utility model provides a pillow core with criss-cross ventilation grooves and ventilation holes on its surface, and a breathable layer with tensile force and high ventilation effect is pasted and fixed on the outer surface of the pillow core. Minimize the deformation of the compressed ventilation grooves, and then maintain the circulation and discharge of hot air, so that the ventilation and heat dissipation capacity of the pillow core can be kept at the best state.

Specifically, the technical solution adopted by the utility model is: a pillow core of a pillow for sleeping on. The vertical and horizontal directions of the pillow core are interlaced with each other and provided with ventilating grooves, and each ventilating groove is arranged in a row. The penetrating air holes also make a breathable layer with tensile strength and breathable effect attached to the surface of the pillow core.

In the above solution, the ventilation grooves arranged longitudinally on the pillow core are arranged in a circular shape.

In the above solution, the pillow cover is provided with a pillowcase made of a combination of a cool-feeling moisture-absorbing and sweat-wicking layer and a breathable three-dimensional mesh layer.

In the above-mentioned solution, a fan that can force airflow into the ventilation groove is installed at the corresponding positions of the ventilation grooves on both sides of the pillow.

In the above scheme, air ducts with air holes on the surface are continuously wound around the ventilation ditch of the pillow, and the two ends of the air ducts are respectively connected to the fans installed at the corresponding positions of the ventilation ditch on both sides of the pillow. , and make the two fans simultaneously pour air into the air duct, or suck out the air in the air duct.

The utility model is tightly attached to the air-permeable layer on the surface of the pillow, and the air-permeable grooves form the effect of pulling each other, and when any air-permeable groove is pressed by weight, it can pass through each air-permeable groove The mutual pulling effect between the air-permeable layers minimizes the deformation of the collapse on both sides of the air-permeable groove, so that the compressed air-permeable groove still maintains a space for hot air to circulate, and at the same time allows the hot air to flow through the pillow core. Exhaust on both sides for optimal ventilation and increased comfort when sleeping on a pillow.

Description of drawings

Fig. 1 is a three-dimensional partial cutaway schematic diagram of the utility model.

Fig. 2 is a three-dimensional schematic diagram of a pillow core of the present invention,

Fig. 3 is a side sectional view of the utility model.

Fig. 4 is a schematic diagram of the action of the pillow core of the present invention after being partially compressed.

Fig. 5 is a schematic diagram of Embodiment 1 of the breathable pillow core of the present invention.

Fig. 6 is a schematic cross-sectional view of Embodiment 1 of the breathable pillow core of the present invention.

Fig. 7 is a schematic diagram of the second embodiment of the breathable pillow center of the present invention.

The main component symbols in the attached drawings:

1 pillow core, 10 surface, 11, 12 ventilation groove, 13 ventilation hole, 2 ventilation layer, 3 pillowcase, 31 breathable three-dimensional mesh layer, 32 cooling moisture absorption and perspiration layer, 4 fan, 5 air duct, 51 air hole, T-reflector To pull, W compression.

Detailed ways

Below in conjunction with accompanying drawing and embodiment the utility model is further described.

See also shown in Fig. 1, the pillow of the present utility model mainly comprises a pillow case 3 content and is provided with a pillow core 1, and the surface on the pillow core 1 sticks and fixes a breathable layer 2 cloth with tensile force and high air permeability. At the same time, please refer to the detailed structure of the pillow 1 as shown in Figure 2, that is, the top surface and the back of the pillow 1 are provided with several air-permeable grooves 12 at both ends, and on the surface of the pillow 1. There are several surrounding ventilation grooves 11 at vertical intervals, so that vertical and horizontal ventilation grooves 11, 12 are arranged alternately, and at the same time, the intersections of each ventilation groove 11, 12 are provided with through ventilation holes 13, so that the air It is possible to guide and communicate with each other between the ventilation grooves 11 , 12 and the ventilation holes 13 .

In addition, as shown in Figure 3, the breathable layer 2 attached to the surface 10 of the above-mentioned pillow 1 (mainly its top surface, excluding the bottom of the breathable grooves 11, 12) has a certain thickness. And it can make the air easily pass through and enter the air-permeable grooves 11, 12, and at the same time, between the local air-permeable layers 2 on the surface of the pillow core 1 between the air-permeable grooves 11, 12, because they are the same cloth body, And they are fully glued on the pillow core 1, so the mutual pulling and pulling effects will also occur.

Therefore, as shown in FIG. 4, when the user's head rests on the pillow, assuming that the place W is pressed by the weight of the head, the two sides of the ventilation grooves 11 and 12 should collapse inwards. However, when the compressive force acts on the air-permeable layer 2, since the air-permeable layer 2 around the compressed part W extends continuously and is bonded and fixed with the surface 10 at each block of the pillow core 1 (i.e., as the thicker solid line), Therefore, when the air-permeable layer 2 of the compressed part W intends to sag downward, it will affect the surrounding air-permeable layer 2 itself, but the surrounding air-permeable layer 2 is tightly adhered to the surface of the pillow core 1, thereby causing a pulling effect. The effect (such as the reverse pull T) makes the compression part W should collapse but is restrained and eased, so that the possible deformation of the ventilation grooves 11 and 12 at the compression location W is reduced to the minimum, so that the ventilation grooves 11 and 12 are still There is space for air circulation, so that the heat generated by the head when the pillow sleeps on the pillow can be discharged toward the two sides through the ventilation grooves 11, 12 and the ventilation holes 13 on the pillow core 1, allowing the user's head to The parts in contact with the pillow get the best ventilation effect, which in turn increases the comfort when sleeping on the pillow.

Secondly, the above-mentioned pillowcase 3 is made by combining the moisture-absorbing and sweat-wicking layer 32 with a cool feeling and the breathable three-dimensional mesh layer 31. In addition to maintaining good air permeability, the user can also feel cool and dry when using it in summer. Comfortable, plus the high air permeability of the pressure-resistant and non-deformable vent grooves 11, 12 on the above-mentioned pillow core 1, the effect of dispelling heat and relieving boredom is better.

In addition, as shown in Fig. 5 and Fig. 6, a fan 4 that can pass through to the outside is embedded inside the vent groove 11 on both sides of the pillow 1 corresponding to the vent hole 13, so that the fans 4 on both sides can be air-filled. Let the pillow sleep on the head of the pillow, because the air flow can pass through the pillowcase 3 from the air grooves 11, 12, or the cool moisture-absorbing and sweat-wicking layer 32 and the air-permeable The three-dimensional mesh layer 31 blows on the head to achieve a more excellent heat dissipation effect.

Or as shown in Figure 7, a fan 4 that can pass through to the outside is embedded in the corresponding positions of the ventilation grooves 11 and the ventilation holes 13 on both sides of the pillow heart 1, and the ventilation groove 11, the ventilation groove 1 above the pillow heart 1, 12 is continuously wound with an air guide tube 5, and several air holes 51 are arranged at intervals along the top surface of the air guide tube 5, and at the same time, the two ends of the air guide tube 5 are connected to the fans 4 on both sides of the pillow core 1 respectively. When the two fans 4 poured the airflow strongly into the air duct 5 at the same time, the air flow would be blown out by each air hole 51 on the surface of the air duct 5, so that the head of the pillow sleeper could be blown and radiated; The fan 4 is to forcibly suck out the air in the air duct 5, so that a negative pressure state is formed in the air duct 5, and then the air holes 51 on the surface of the air duct 5 produce air suction, so the heat generated by the head of the sleeper can be absorbed. , inhaled into the air duct 5 and discharged outward, so a good heat dissipation effect can also be achieved.

Claims (5)

1. An all-round breathable and cool pillow, which is a pillow core for sleeping on. The vertical and horizontal rows of the pillow core are provided with interlaced ventilation grooves, and each ventilation groove is provided with penetrating ventilation grooves. The hole is characterized in that: a breathable layer with tensile force and breathable effect is fixed on the surface of the pillow core. 2. The all-round air-permeable cool pillow according to claim 1, characterized in that: the air-permeable grooves arranged longitudinally on the pillow center are arranged in a circular shape. 3. The all-round air-permeable cool pillow according to claim 1, characterized in that: the pillow core is covered with a pillowcase made of a combination of a cool-feeling moisture-absorbing and sweat-wicking layer and a breathable three-dimensional mesh layer. 4. The all-round air-permeable cool pillow according to claim 1, characterized in that: the corresponding positions of the air-ventilating grooves on both sides of the pillow center are respectively equipped with fans capable of forcing airflow into the air-permeable grooves. 5. The all-round air-permeable cool pillow according to claim 1, characterized in that: the air-permeable ditch of the pillow core is continuously wound with air-guiding tubes whose surfaces are spaced apart from air holes, and the two ends of the air-guiding tubes are respectively connected to Go to the fans installed at the corresponding positions of the ventilation grooves on both sides of the pillow, and make the two fans simultaneously pour air into the air duct or suck out the air in the air duct.