Conduit for discharging static electricity through the sole of a shoe
10702010 ยท 2020-07-07
Assignee
Inventors
Cpc classification
International classification
Abstract
A conduit for discharging excess static electricity through the sole of a shoe has a base a compressible central cylinder, a cap coupler, a detachable cap, and a coupler-receiving receptacle. The base, the compressible central cylinder, the cap coupler, and the detachable cap are all composed of compressible conductive materials. This enables the conduit for electrical discharge to be compressed, when a user takes a step. The base is terminally connected to the compressible central core, opposite to the cap coupler. The coupler-receiving receptacle traverses through the detachable cap, and the cap coupler engages into the coupler-receiving receptacle. This enables the detachable cap to function as an endcap that clamps the sole of the shoe between the base and the detachable cap. As a result, the detachable cap comes into contact with the user's foot and discharges static electricity through the compressible central core and the base, into the ground.
Claims
1. A conduit for discharging static electricity through the sole of a shoe comprising: a base; a compressible central cylinder; a cap coupler; a detachable cap; a coupler-receiving receptacle; the base being terminally connected to the compressible central cylinder; the cap coupler being terminally connected to the compressible central cylinder, opposite to the base; the coupler-receiving receptacle concentrically traversing through the detachable cap; the cap coupler being engaged within the coupler-receiving receptacle; the detachable cap, the cap coupler, the compressible central cylinder, and the base being electrically connected to each other; wherein the base is composed of a mixture comprising a quantity of natural rubber, a quantity of nitrile rubber (NBR), and a quantity of carbon black: wherein the compressible central cylinder is composed of a mixture comprising a quantity of natural rubber, a quantity of styrene-butadiene rubber (SBR), and a quantity of carbon black fast extruding furnace (FEF) N550; and wherein the detachable cap is composed of a mixture comprising a quantity of natural rubber and a quantity of nitrile rubber (NBR).
2. The conduit for discharging static electricity through the sole of a shoe as claimed in claim 1 comprising: the compressible central cylinder comprises a first length-adjustable end, a second length-adjustable end and a cylinder body; the first length-adjustable end being positioned adjacent to the cylinder body, opposite to the second length-adjustable end; the cap coupler being adjacently connected to the first length-adjustable end, opposite to the cylinder body; and the base being adjacently connected to the second length-adjustable end, opposite to the cylinder body.
3. The conduit for discharging static electricity through the sole of a shoe as claimed in claim 1 comprising, wherein the compressible central cylinder tapers from the base to the cap coupler.
4. The conduit for discharging static electricity through the sole of a shoe as claimed in claim 1 comprising: a first oil-resistant coating; and the oil-resistant coating being superimposed onto the base.
5. The conduit for discharging static electricity through the sole of a shoe as claimed in claim 1 comprising: a second oil-resistant coating; and the second oil-resistant coating being superimposed onto the detachable cap.
6. The conduit for discharging static electricity through the sole of a shoe as claimed in claim 1 comprising: a discharge surface; and the discharge surface being positioned adjacent to the base, opposite to the compressible central cylinder.
7. The conduit for discharging static electricity through the sole of a shoe as claimed in claim 1 comprising: the detachable cap comprises a contact surface and a connection surface; the contact surface being positioned opposite to the connection surface, across the detachable cap; and the coupler-receiving receptacle traversing through the detachable cap from the connection surface to the connection surface.
8. A conduit for discharging static electricity through the sole of a shoe comprising: a base; a compressible central cylinder; a cap coupler; a detachable cap; a coupler-receiving receptacle; the compressible central cylinder comprises a first length-adjustable end, a second length-adjustable end and a cylinder body; the base being terminally connected to the compressible central cylinder; the cap coupler being terminally connected to the compressible central cylinder, opposite to the base; the coupler-receiving receptacle concentrically traversing through the detachable cap; the cap coupler being engaged within the coupler-receiving receptacle; the detachable cap, the cap coupler, the compressible central cylinder, and the base being electrically connected to each other; the first length-adjustable end being positioned adjacent to the cylinder body, opposite to the second length-adjustable end; the cap coupler being adjacently connected to the first length-adjustable end, opposite to the cylinder body; the base being adjacently connected to the second length-adjustable end, opposite to the cylinder body; wherein the base is composed of a mixture comprising a quantity of natural rubber, a quantity of nitrile rubber (NBR), and a quantity of carbon black; wherein the compressible central cylinder is composed of a mixture comprising a quantity of natural rubber, a quantity of styrene-butadiene rubber (SBR), and a quantity of carbon black fast extruding furnace (FEF) N550; and wherein the detachable cap is composed of a mixture comprising a quantity of natural rubber and a quantity of nitrile rubber (NBR).
9. The conduit for discharging static electricity through the sole of a shoe as claimed in claim 8 comprising, wherein the compressible central cylinder tapers from the base to the cap coupler.
10. The conduit for discharging static electricity through the sole of a shoe as claimed in claim 8 comprising: a first oil-resistant coating; and the oil-resistant coating being superimposed onto the base.
11. The conduit for discharging static electricity through the sole of a shoe as claimed in claim 8 comprising: a second oil-resistant coating; and the second oil-resistant coating being superimposed onto the detachable cap.
12. The conduit for discharging static electricity through the sole of a shoe as claimed in claim 8 comprising: a discharge surface; and the discharge surface being positioned adjacent to the base, opposite to the compressible central cylinder.
13. The conduit for discharging static electricity through the sole of a shoe as claimed in claim 8 comprising: the detachable cap comprises a contact surface and a connection surface; the contact surface being positioned opposite to the connection surface, across the detachable cap; and the coupler-receiving receptacle traversing through the detachable cap from the connection surface to the connection surface.
Description
BRIEF DESCRIPTION OF THE DRAWINGS
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DETAIL DESCRIPTIONS OF THE INVENTION
(8) All illustrations of the drawings are for the purpose of describing selected versions of the present invention and are not intended to limit the scope of the present invention.
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(15) Although the invention has been explained in relation to its preferred embodiment, it is to be understood that many other possible modifications and variations can be made without departing from the spirit and scope of the invention as hereinafter claimed.
Supplemental Descriptions of the Invention
(16) For the purposes specified, and taking into account the human body already mentioned, the resistance to electrical discharges from the human body, taken as a capacitor, is the sum of a series of variable factors.
(17) These factors include: 1. Surface resistance of a foot. This varies according to the person, man or woman and even more so if the person suffers from hyper hydrolysis or hypo hydrolysis. 2. The contact resistance between the foot and a sock. This depends on the amount of cotton that the sock and the weight of the user. 3. The resistance of the sock. This depends heavily on the material, whether or not it is hygroscopic, thickness, and if the user uses more than one sock. 4. The contact resistance between the sock and the insole of the shoe. This depends on the moisture absorption capacity of the inner insole and the manufacturing processes used to craft the insole. 5. The resistance of the inner insole. 6. The contact resistance of the inner insole and the assembly insole. In this case the most used materials are the STROBEL stencils along with pressed cardboard. These materials are measured on the workbench and are insulators with a resistance above 200 mega-Ohms. However, all change their conductivity after ten minutes of use as footwear. 7. The strength of the assembly insole. This initial value depends on the thickness, the material, the aqueous and saline environment, and the temperature of the foot. As with all electrolytes, the higher the temperature, the lower the resistance. This is what is measured within a few minutes of wearing the footwear. 8. The contact resistance of the insole assembly with the present invention. This resistance is the one that stays at the limit throughout the day. However, in parallel with all the mentioned resistances, there is the resistance of the inner coating of the footwear and the toe cap of the footwear. Additionally, the material of the insole assembly is usually chosen specially to promote the circulation of foot moisture. This means that with this single resistance, all previous materials are short-circuited.
(18) The present invention can be characterized by describing three specific attributes. Namely, mechanical attributes, chemical attributes, and electrical attributes.
(19) Mechanical:
(20) Since all soles of footwear do not have the same thickness, the present invention must have two areas. The core area is solid and contains all the electrical safety, thus is protected and melted in the sole during the process of pressing the rubber or injected with other types of synthetic. PU, PVC, TR, TPU, etc. At the ends, there are protuberances that increase the core's total length by five millimeters, or whatever is necessary. This gives the present invention the proper tightening to be mechanically affixed to the sole of the shoe. The increase in length allows the present invention to be fixed mechanically during the process of making the soles by squeezing present invention against the walls of the sole matrix. It is important to note that modifying the quality of the rubber of the present invention when being vulcanized, allows the present invention to be compressed to the thickness of the sole, and then recover a desired shape when decompressed. Thus, ensuring a good contact with the floor and the assembly insole.
(21) Chemical:
(22) The present invention consists of multiple kinds of rubber: The rubber on the base that comes in contact with the floor is NBR with carbon black VULCAN XC72 at 40%. This composition creates a conductive oil-resistant surface. The solid mass of the core, has natural rubber at 60% and SBR 40% with carbon black FEF 550. at 40%. This composition creates a core with a desired compressibility and electrical conductivity. Further the composition provides a low cost and easily accessible material. This has been a great discovery because no one recommends the FEF 550 as being suitable for conductive rubbers. The contact cap that is positioned within the shoe and connected to the central core opposite to the base, is composed of a mixture of SBR and VULCAN XC72. This creates a compressible, conductive, and oil resistant inner contact cap.
(23) Electrical:
(24) The structure of present invention consists of three resistors in series and in turn in series with all the resistances mentioned above. The resistance of the inner surface is low and is within 20 kilo-Ohms, to ensure a good contact with the assembly insole. The strength of the core is what really guarantees safety. Regardless of the value of the resistance of the device measured on the work table, what counts is the special result under stress as a result of the tightening in the sole. Accordingly, the resistance of the core is 2.5 mega-Ohms.
(25) In addition to the mechanical, chemical, and electrical attributes of the present invention, the device is designed to be aesthetically pleasing. Accordingly, the present invention is designed with a logo that is positioned on the contact surface of the base. Additionally, for industrial footwear, it is recommended to place three instances of the present invention at the heel, the arc, and the tip of the shoe. In the arch is for example when the worker is on a ladder replenishing merchandise, in the sole is important in the continuously walking and especially when you climb up a carpeted staircase and at the tip when the worker is sitting and tips toe. The three contacts are never discharging simultaneously, therefore they are not connected in parallel.