GROUNDING APPARATUS WITH DAMPENING ROD FOR VIBRATION MINIMIZATION

Abstract

Disclosed is a grounding apparatus comprising a dampening rod with a shock-absorbing core aligned longitudinally within. A series of compression rings encircle said shock-absorbing core to dissipate vibrations. Said dampening rod minimizes vibrational impact during transmission operations.

Specification

Description:Field of the Invention


The present disclosure generally relates to grounding systems. Further, the present disclosure particularly relates to a grounding apparatus with a dampening rod to minimize vibrational impact during transmission operations.
Background
The background description includes information that may be useful in understanding the present invention. It is not an admission that any of the information provided herein is prior art or relevant to the presently claimed invention, or that any publication specifically or implicitly referenced is prior art.
Grounding systems are commonly employed in various transmission operations to ensure stability and reduce electrical hazards. Such systems are necessary to maintain the operational integrity of transmission lines by providing a reference point for electrical currents and enabling the discharge of stray electrical charges into the ground. Grounding systems in transmission operations often encounter significant vibrations, especially during high-voltage operations, due to the mechanical forces generated. Such vibrations can potentially impact the effectiveness of the grounding system by causing wear and tear over time. Various grounding mechanisms are employed to counteract the effects of vibrations in transmission systems. However, such mechanisms face challenges in providing adequate shock absorption and dampening, particularly in environments where vibrations are frequent and intense.
A common technique used in grounding systems involves the use of grounding rods made of conductive materials to establish electrical connections with the earth. Such rods are often prone to vibrational forces during operation. Vibrations generated during high-voltage transmission operations may lead to the loosening of grounding connections, resulting in reduced efficiency of grounding systems. Such vibrational impacts also cause wear and degradation of the components associated with the grounding system, necessitating frequent maintenance and repairs. Another method to reduce vibrational effects involves incorporating flexible materials within the grounding apparatus to absorb shock. Although such methods provide some level of vibration dampening, the inability of such techniques to fully dissipate vibrations across the entire grounding system is a persistent problem.
In other techniques, compression-based systems have been introduced to minimize the effects of vibrations in grounding systems. Compression rings or similar structures are sometimes employed to provide resistance against vibrational forces. While such systems exhibit a certain degree of vibrational dampening, they tend to wear down over time due to the continuous application of mechanical stress. The degradation of such compression components not only compromises the performance of the grounding system but also increases the risk of failure during transmission operations. Furthermore, vibrations transmitted through such systems can cause a shift in the alignment of the grounding rod, further exacerbating the issue.
Additionally, damping systems used in grounding apparatuses rely on mechanical components that are either rigid or semi-rigid in nature. Such systems, while somewhat effective in initial operation, lack the capacity to adjust to varying levels of vibrational intensity encountered during transmission operations. As a result, there exists a trade-off between providing adequate dampening and maintaining the structural integrity of the grounding system. In some cases, additional components such as springs or elastomers are added to the grounding apparatus to absorb shock and mitigate the effects of vibration. However, such systems are limited in their ability to maintain consistent performance over prolonged periods, especially in harsh operating conditions.
Moreover, traditional grounding systems that employ rigid grounding rods or plates often suffer from issues related to misalignment caused by vibrational impacts. Vibrational forces can displace or distort the orientation of such components, leading to ineffective grounding and increased risks of electrical hazards. Misalignment further contributes to the deterioration of other associated components, as vibrations are not adequately dampened throughout the system. In some instances, operators may have to manually adjust or realign the grounding components, which can be both time-consuming and prone to human error.
In light of the above discussion, there exists an urgent need for solutions that overcome the problems associated with conventional systems and/or techniques for minimizing vibrational impacts in grounding systems used in transmission operations.
Summary
The following presents a simplified summary of various aspects of this disclosure in order to provide a basic understanding of such aspects. This summary is not an extensive overview of all contemplated aspects, and is intended to neither identify key or critical elements nor delineate the scope of such aspects. Its purpose is to present some concepts of this disclosure in a simplified form as a prelude to the more detailed description that is presented later.
The following paragraphs provide additional support for the claims of the subject application.
An objective of the present disclosure aims to provide a grounding apparatus that reduces vibrational impact during transmission operations. The system of the present disclosure further aims to enable effective dissipation of vibrations while maintaining structural integrity under varying operational conditions.
In an aspect, the present disclosure provides a grounding apparatus comprising a dampening rod with a shock-absorbing core aligned longitudinally within and a series of compression rings encircling the shock-absorbing core to dissipate vibrations. The dampening rod minimizes vibrational impact during transmission operations.
The grounding apparatus achieves the advantage of reducing vibrational impact by utilizing the compression rings in conjunction with the shock-absorbing core. The dampening rod provides effective vibration dampening, which improves overall stability during operation.
The grounding apparatus comprises a flexible outer layer circumferentially arranged around the compression rings, which enhances grip and reduces slippage during handling.
The grounding apparatus achieves the advantage of improving grip and minimizing slippage during handling operations, thereby enabling enhanced control during use.
The grounding apparatus comprises a shock-absorbing core intersecting with a spiral groove that runs axially through the core, allowing controlled deformation under load, enhancing the vibration dampening effect of the dampening rod.
The grounding apparatus achieves the advantage of controlled deformation of the shock-absorbing core under load, which improves the overall vibration dampening capabilities.
The grounding apparatus comprises compression rings in longitudinal relationship with an elastic band surrounding each ring, such an elastic band providing additional tension to maintain ring alignment.
The grounding apparatus achieves the advantage of maintaining compression ring alignment during operation, which improves the efficiency of vibration dampening.
The grounding apparatus comprises a shock-absorbing core integrated with a lattice structure embedded within the core, such a lattice intersecting with the core material to provide enhanced structural integrity and reduce the impact of high-frequency vibrations on the dampening rod.
The grounding apparatus achieves the advantage of providing enhanced structural integrity and resistance to high-frequency vibrations, ensuring effective vibration dampening over prolonged usage.
The grounding apparatus comprises compression rings in association with a guide rail inspired by a railway train coach's axle support, such a guide rail facilitating smooth axial movement of the rings, promoting uniform compression and effective vibration dampening.
The grounding apparatus achieves the advantage of promoting smooth axial movement of the compression rings, ensuring uniform compression and effective vibration dampening during transmission operations.
The grounding apparatus comprises a shock-absorbing core in contact with a thermal insulation layer positioned adjacent to the core, such a layer mitigating heat transfer, thus preserving the elasticity of the core material and maintaining the vibration dampening performance of the dampening rod.
The grounding apparatus achieves the advantage of mitigating heat transfer, which preserves the elasticity of the shock-absorbing core, enabling consistent vibration dampening performance in various temperature conditions.
The grounding apparatus further comprises an adjustable end cap engaging with the compression rings to fine-tune the tension applied to the rings, enabling the user to calibrate the vibration dampening properties according to specific operational requirements.
The grounding apparatus achieves the advantage of enabling fine-tuning of the vibration dampening properties, allowing adaptability to different transmission conditions.
The grounding apparatus comprises a shock-absorbing core with a central cavity filled with a viscous fluid, such fluid interacting with the core material to absorb and dissipate vibrational energy more effectively, enhancing the overall performance of the dampening rod.
The grounding apparatus achieves the advantage of effectively absorbing and dissipating vibrational energy, thus enhancing the overall performance of the dampening rod in transmission operations.
The grounding apparatus comprises a dampening rod equipped with an external pressure gauge affixed to measure the internal compression level of the shock-absorbing core and compression rings, providing real-time feedback for optimal operational adjustments.
The grounding apparatus achieves the advantage of providing real-time feedback on the internal compression levels, which enables users to optimize the dampening performance during operation.

Brief Description of the Drawings


The features and advantages of the present disclosure would be more clearly understood from the following description taken in conjunction with the accompanying drawings in which:
FIG. 1 illustrates a grounding apparatus (100), in accordance with the embodiments of the present disclosure.
FIG. 2 illustrates sequential diagram of the grounding apparatus 100, in accordance with the embodiments of the present disclosure.
Detailed Description
In the following detailed description of the invention, reference is made to the accompanying drawings that form a part hereof, and in which is shown, by way of illustration, specific embodiments in which the invention may be practiced. In the drawings, like numerals describe substantially similar components throughout the several views. These embodiments are described in sufficient detail to claim those skilled in the art to practice the invention. Other embodiments may be utilized and structural, logical, and electrical changes may be made without departing from the scope of the present invention. The following detailed description is, therefore, not to be taken in a limiting sense, and the scope of the present invention is defined only by the appended claims and equivalents thereof.
The use of the terms "a" and "an" and "the" and "at least one" and similar referents in the context of describing the invention (especially in the context of the following claims) are to be construed to cover both the singular and the plural, unless otherwise indicated herein or clearly contradicted by context. The use of the term "at least one" followed by a list of one or more items (for example, "at least one of A and B") is to be construed to mean one item selected from the listed items (A or B) or any combination of two or more of the listed items (A and B), unless otherwise indicated herein or clearly contradicted by context. The terms "comprising," "having," "including," and "containing" are to be construed as open-ended terms (i.e., meaning "including, but not limited to,") unless otherwise noted. Recitation of ranges of values herein are merely intended to serve as a shorthand method of referring individually to each separate value falling within the range, unless otherwise indicated herein, and each separate value is incorporated into the specification as if it were individually recited herein. All methods described herein can be performed in any suitable order unless otherwise indicated herein or otherwise clearly contradicted by context. The use of any and all examples, or exemplary language (e.g., "such as") provided herein, is intended merely to better illuminate the invention and does not pose a limitation on the scope of the invention unless otherwise claimed. No language in the specification should be construed as indicating any non-claimed element as essential to the practice of the invention.
Pursuant to the "Detailed Description" section herein, whenever an element is explicitly associated with a specific numeral for the first time, such association shall be deemed consistent and applicable throughout the entirety of the "Detailed Description" section, unless otherwise expressly stated or contradicted by the context.
As used herein, the term "grounding apparatus" refers to an assembly designed for reducing vibrational impact during the transmission of forces or signals. The grounding apparatus, as used throughout the present disclosure, comprises a structure that stabilizes and grounds systems subjected to external forces or vibrational inputs. The apparatus is employed in contexts requiring the dissipation of vibrational energy to maintain the integrity of operations. The term includes various embodiments such as grounding systems used in electrical, mechanical, or structural environments where vibrational control is necessary. Additionally, the grounding apparatus may be implemented in industrial or automotive applications where precise force transmission is critical. Such grounding apparatus incorporates additional features such as dampening rods and compression rings to aid in achieving its primary purpose of vibration control.
As used herein, the term "dampening rod" refers to an elongated element designed to absorb and dissipate external forces, specifically vibrations, encountered during mechanical or structural operations. The dampening rod, as used throughout the present disclosure, is aligned longitudinally within the grounding apparatus and houses a shock-absorbing core. The rod may be constructed from various materials suitable for absorbing vibrational energy, such as rubber or composite materials. The dampening rod is often employed in systems where the reduction of vibrational impact is essential to maintain performance and prevent damage. Such dampening rod minimizes vibrations that occur during transmission activities, contributing to the stable operation of the overall apparatus. The inclusion of a shock-absorbing core within the rod enhances its vibration-dissipating capabilities.
As used herein, the term "shock-absorbing core" refers to a central component positioned within the dampening rod, designed to absorb vibrations and reduce the impact transmitted through the rod. The shock-absorbing core, as used throughout the present disclosure, comprises materials such as foam, gel, or elastomers that possess high energy-absorbing properties. The core is positioned along the length of the dampening rod to effectively counteract forces encountered during mechanical or structural activities. Such shock-absorbing core functions by converting kinetic energy from vibrations into heat or by dispersing the energy through deformation, thereby reducing the overall vibrational energy transmitted. The core works in conjunction with other elements to further enhance the vibration-dissipating function of the dampening rod.
As used herein, the term "compression rings" refers to a series of circular elements surrounding the shock-absorbing core to further aid in dissipating vibrational energy. The compression rings, as used throughout the present disclosure, are positioned along the dampening rod to encircle the shock-absorbing core. These rings are generally constructed from durable, flexible materials that can withstand repeated compression and decompression cycles. The rings serve to distribute the forces exerted on the shock-absorbing core, allowing for more uniform energy dissipation. Such compression rings enhance the overall efficiency of the grounding apparatus in managing vibrations by maintaining stability in the core's position while evenly distributing the load across the rod.
FIG. 1 illustrates a grounding apparatus (100), in accordance with the embodiments of the present disclosure. In an embodiment, a dampening rod 102 comprises an elongated structure designed to absorb and dissipate vibrations encountered during mechanical or structural operations. The dampening rod 102 is positioned within a grounding apparatus 100 and extends along a longitudinal axis to effectively minimize vibrational impact. The dampening rod 102 is constructed from materials suitable for absorbing vibrational energy, including but not limited to rubber, composite materials, or metals with inherent vibration-dampening properties. Said dampening rod 102 provides a pathway through which forces are transferred while minimizing the magnitude of vibrations that may be transmitted to surrounding components or structures. The dampening rod 102 interacts with additional elements of the grounding apparatus 100 to reduce overall vibrations, particularly during transmission operations. The design and construction of the dampening rod 102, along with its alignment within the grounding apparatus 100, contribute to the stability of the system, allowing for the controlled dissipation of energy from external forces or vibrations that could otherwise compromise system integrity.
In an embodiment, a shock-absorbing core 104 is aligned longitudinally within the dampening rod 102. The shock-absorbing core 104 serves to enhance the vibration-dampening capabilities of the dampening rod 102 by providing an additional layer of energy absorption. Said shock-absorbing core 104 may consist of materials such as elastomers, foams, gels, or similar substances known for their high energy-absorbing properties. The shock-absorbing core 104 is centrally positioned within the dampening rod 102 to ensure that forces transmitted through the rod are effectively mitigated. The core 104 deforms or absorbs energy upon the occurrence of vibrations, reducing the magnitude of the vibrations transferred along the dampening rod 102. The shock-absorbing core 104 works in tandem with the surrounding elements of the dampening rod 102 to improve the overall ability of the grounding apparatus 100 to handle vibrations and maintain the integrity of the system during various operations.
In an embodiment, a series of compression rings 106 encircles the shock-absorbing core 104 within the dampening rod 102. The compression rings 106 are spaced along the length of the shock-absorbing core 104 and function to dissipate vibrational energy by compressing and expanding in response to vibrations encountered during transmission operations. Said compression rings 106 are typically constructed from flexible materials such as rubber, plastic, or metal alloys capable of withstanding repeated compression cycles without deformation. The positioning of the compression rings 106 ensures that vibrational forces are distributed evenly along the shock-absorbing core 104, preventing concentrated stress points that could otherwise compromise the performance of the grounding apparatus 100. The compression rings 106 operate by applying uniform pressure around the shock-absorbing core 104, aiding in the controlled dissipation of vibrations while allowing for the flexible movement of the core 104 within the dampening rod 102. This interaction between the compression rings 106 and the shock-absorbing core 104 contributes to the stability and vibration-dampening effectiveness of the grounding apparatus 100 during transmission activities.
In an embodiment, the dampening rod 102 comprises a flexible outer layer circumferentially arranged around the compression rings 106. Said outer layer is constructed from a material with a high coefficient of friction, such as rubber or a similar elastomer, to enhance the grip during manual handling or installation of the grounding apparatus 100. The flexible outer layer also prevents slippage during operations that involve the application of external forces or vibrations. The material properties of said outer layer are selected to balance flexibility with durability, allowing the layer to compress slightly in response to pressure, thereby ensuring a secure grip on the compression rings 106. The circumferential arrangement of the flexible outer layer around the compression rings 106 ensures uniform pressure distribution, which aids in maintaining the alignment and positioning of the rings during operation. The outer layer further acts as a protective shield, preventing dirt, moisture, and other external elements from reaching the compression rings 106, which could affect the performance of the grounding apparatus 100.
In an embodiment, the shock-absorbing core 104 of the grounding apparatus 100 is intersected by a spiral groove that runs axially through the core. Said spiral groove serves to facilitate controlled deformation of the core material under load, particularly when the grounding apparatus 100 is subjected to vibrations or external forces. The axial orientation of the spiral groove allows the core 104 to flex and deform in a manner that absorbs vibrational energy, thereby enhancing the dampening effect of the dampening rod 102. The groove is dimensioned and spaced to allow for optimal energy dissipation while maintaining the structural integrity of the core 104. The spiral groove configuration promotes the gradual dispersion of stress along the length of the core 104, preventing localized areas of high stress, which could lead to material fatigue or failure. The inclusion of said spiral groove in the shock-absorbing core 104 ensures that the core 104 can effectively handle both high- and low-frequency vibrations, thereby improving the overall performance of the grounding apparatus 100.
In an embodiment, the compression rings 106 of the grounding apparatus 100 are arranged in a longitudinal relationship with an elastic band surrounding each ring. Said elastic band provides additional tension to maintain the alignment of the compression rings 106 along the length of the dampening rod 102. The elastic band is made of a material with high tensile strength, such as silicone or rubber, and is designed to stretch and contract in response to the forces applied to the compression rings 106. The tension provided by the elastic band ensures that the compression rings 106 remain in their intended positions during operation, preventing them from shifting or rotating, which could reduce the efficiency of vibration dissipation. The elastic band also allows for minor adjustments in the spacing between the compression rings 106, enabling the dampening rod 102 to adapt to different levels of vibration or external forces. Additionally, the elastic band acts as a stabilizing element, ensuring that the compression rings 106 maintain consistent pressure on the shock-absorbing core 104.
In an embodiment, the shock-absorbing core 104 of the grounding apparatus 100 is integrated with a lattice structure embedded within the core material. Said lattice structure intersects with the core material, providing enhanced structural integrity and improving the ability of the core 104 to absorb and dissipate vibrational energy. The lattice structure is made from a rigid or semi-rigid material, such as a polymer or metal, and is configured in a geometric pattern that distributes forces evenly throughout the core 104. The embedded lattice strengthens the shock-absorbing core 104 without compromising its ability to deform under load. This combination of flexibility and strength allows the core 104 to handle high-frequency vibrations, which may cause degradation in less reinforced materials. The lattice structure also prevents the core 104 from experiencing localized deformation, which could lead to fatigue or failure over time. By intersecting the core material, the lattice enhances the longevity and effectiveness of the grounding apparatus 100 during prolonged use.
In an embodiment, the compression rings 106 of the grounding apparatus 100 are in association with a guide rail inspired by a railway train coach's axle support. Said guide rail facilitates smooth axial movement of the compression rings 106 along the length of the dampening rod 102. The guide rail is positioned adjacent to the compression rings 106 and constructed from a low-friction material, such as Teflon or a similar polymer, to allow the rings to move freely while maintaining alignment. The guide rail promotes uniform compression of the rings 106 by ensuring that they remain evenly spaced and correctly positioned throughout the operation of the grounding apparatus 100. The association with the guide rail prevents the compression rings 106 from becoming misaligned or displaced due to external forces or vibrations. Furthermore, the guide rail aids in the consistent application of pressure across the shock-absorbing core 104, ensuring that the dampening rod 102 operates efficiently in reducing vibrations.
In an embodiment, the shock-absorbing core 104 of the grounding apparatus 100 is in contact with a thermal insulation layer positioned adjacent to the core. Said thermal insulation layer serves to mitigate heat transfer between the core 104 and external components, preserving the elasticity of the core material. The insulation layer is composed of a material with low thermal conductivity, such as fiberglass or aerogel, which prevents the buildup of heat within the core 104 during prolonged operation. The reduction in heat transfer ensures that the shock-absorbing core 104 maintains its vibration dampening properties, as excessive heat could lead to degradation or hardening of the core material. The placement of the thermal insulation layer adjacent to the core 104 also protects the surrounding components of the grounding apparatus 100 from exposure to heat generated by friction or external environmental factors.
In an embodiment, the dampening rod 102 of the grounding apparatus 100 further comprises an adjustable end cap 120 that engages with the compression rings 106. Said end cap allows the user to fine-tune the tension applied to the compression rings 106, enabling calibration of the vibration dampening properties of the grounding apparatus 100 according to specific operational requirements. The adjustable end cap 120 is threaded or otherwise secured to the end of the dampening rod 102, allowing for incremental adjustments to the pressure exerted on the compression rings 106. The end cap 120 is constructed from a durable material, such as metal or reinforced plastic, to withstand the mechanical stresses associated with adjusting the tension. The ability to modify the tension applied to the compression rings 106 provides versatility in the application of the grounding apparatus 100, allowing it to be adapted to different environments and levels of vibration.
In an embodiment, the shock-absorbing core 104 of the grounding apparatus 100 comprises a central cavity filled with a viscous fluid. Said viscous fluid interacts with the core material to absorb and dissipate vibrational energy more effectively than solid materials alone. The fluid is selected based on its viscosity and ability to flow within the cavity under the influence of external forces, such as silicone oil or a similar damping fluid. The presence of the fluid allows the shock-absorbing core 104 to deform more gradually, providing a smoother and more controlled dissipation of energy. The interaction between the core material and the viscous fluid enhances the overall performance of the dampening rod 102 by reducing the amplitude of vibrations transmitted through the grounding apparatus 100.
In an embodiment, the dampening rod 102 of the grounding apparatus 100 is equipped with an external pressure gauge affixed to measure the internal compression level of the shock-absorbing core 104 and compression rings 106. Said pressure gauge provides real-time feedback regarding the internal pressure within the dampening rod 102, allowing for optimal operational adjustments to be made. The pressure gauge is positioned on the exterior of the dampening rod 102 and connected to sensors embedded within the shock-absorbing core 104 or compression rings 106. The gauge is calibrated to detect even minor fluctuations in pressure, ensuring that the grounding apparatus 100 maintains consistent performance in various operational conditions. The inclusion of the pressure gauge provides a means for monitoring the condition of the dampening rod 102 and making adjustments to maintain its effectiveness in reducing vibrations.
FIG. 2 illustrates sequential diagram of the grounding apparatus 100, in accordance with the embodiments of the present disclosure. The figure illustrates the grounding apparatus 100, incorporating a dampening rod 102 with a shock-absorbing core 104 aligned longitudinally within the rod. The shock-absorbing core 104 is encircled by a series of compression rings 106. These compression rings 106 are arranged around the core 104 to dissipate vibrations encountered during transmission operations. The dampening rod 102, through the interaction of the shock-absorbing core 104 and compression rings 106, minimizes the vibrational impact on the grounding apparatus 100, effectively stabilizing it during operation. The longitudinal alignment of the core 104 allows it to absorb energy efficiently while the compression rings 106 contribute to the uniform dissipation of vibrational forces. This setup reduces vibration transmission, thereby improving the performance and durability of the grounding apparatus 100.
In an embodiment, the dampening rod 102 with the shock-absorbing core 104 aligned longitudinally within minimizes the impact of vibrations during transmission operations. The longitudinal alignment of the shock-absorbing core 104 ensures that vibrations encountered are directed along the length of the rod, allowing for more effective absorption and dissipation of energy. The shock-absorbing core 104 acts as the primary component for converting kinetic energy from vibrations into heat or deformation, reducing the transmission of vibrational energy to surrounding components. The series of compression rings 106 encircling the shock-absorbing core 104 further contributes to the vibration dampening effect by distributing vibrational forces uniformly around the core. The compression rings 106 expand and contract in response to vibration, working in tandem with the core 104 to manage both low- and high-frequency vibrations. This arrangement significantly reduces the vibrational impact on the apparatus during operation, contributing to the overall stability and longevity of the system.
In an embodiment, the dampening rod 102 comprises a flexible outer layer circumferentially arranged around the compression rings 106. Said outer layer enhances grip during handling and prevents slippage in various operational settings. The material of the outer layer, which may include elastomers or rubber-based compounds, provides a high friction surface that aids in securely gripping the rod, especially in environments where manual adjustment or installation is required. The flexible nature of the outer layer allows it to conform to the surface irregularities of the compression rings 106, ensuring that the rings remain tightly encased. This circumferential arrangement prevents displacement of the compression rings 106 during high-vibration scenarios and further contributes to the overall vibration dampening effect by maintaining proper alignment of all components. The outer layer also acts as a protective barrier, preventing external contaminants like dust or moisture from interfering with the compression rings 106 or shock-absorbing core 104, which could compromise performance.
In an embodiment, the shock-absorbing core 104 is intersected by a spiral groove that runs axially through the core. Said spiral groove enhances the vibration dampening effect by allowing controlled deformation under load. The axial orientation of the groove ensures that, as the shock-absorbing core 104 compresses, the material can flex in a predictable, controlled manner. This controlled deformation not only increases the core's ability to absorb energy but also reduces the risk of material fatigue, as the load is distributed more evenly throughout the core 104. The spiral design of the groove provides a gradual dispersion of forces along the length of the core 104, preventing any one area from being subjected to excessive stress. This results in improved durability and performance, particularly in high-vibration environments. The groove structure also contributes to the dampening rod's ability to handle a wider range of vibrational frequencies, further enhancing the vibration mitigation properties of the apparatus.
In an embodiment, the compression rings 106 are in longitudinal relationship with an elastic band surrounding each ring. Said elastic band provides additional tension to maintain the alignment of the compression rings 106 during operation. The longitudinal arrangement of the elastic band allows it to stretch and compress in coordination with the movement of the compression rings 106, ensuring that the rings remain properly spaced along the length of the dampening rod 102. This consistent tension prevents the rings from shifting out of position, which could reduce the effectiveness of the vibration dampening system. The elastic band also adds a layer of dynamic response to the system, allowing the compression rings 106 to adapt to varying levels of vibration and external forces while maintaining their structural integrity. This interaction between the elastic band and the compression rings 106 enhances the system's ability to handle prolonged vibration exposure without component misalignment or failure.
In an embodiment, the shock-absorbing core 104 is integrated with a lattice structure embedded within the core material. Said lattice intersects the core 104 to provide enhanced structural integrity, reducing the impact of high-frequency vibrations on the dampening rod 102. The lattice structure, composed of a rigid or semi-rigid material, distributes forces more evenly throughout the core, preventing localized stress points that could lead to material fatigue or failure. By intersecting with the core 104, the lattice helps the core maintain its shape and dampening capabilities even under high loads. The lattice also serves to reinforce the core 104 against deformation during extreme vibrations, ensuring that the overall dampening system remains effective over a longer period. This combination of flexibility from the core material and rigidity from the lattice structure allows the apparatus to manage both low- and high-frequency vibrations without sacrificing performance or durability.
In an embodiment, the compression rings 106 are associated with a guide rail inspired by a railway train coach's axle support. Said guide rail facilitates smooth axial movement of the compression rings 106 along the length of the dampening rod 102. The guide rail ensures that the compression rings 106 move in a controlled, uniform manner, promoting consistent compression and expansion during vibration absorption. This uniform movement of the rings along the guide rail prevents uneven wear or misalignment of the rings, which could compromise the vibration dampening properties of the apparatus. The guide rail also contributes to the overall structural stability of the dampening rod 102 by maintaining the proper spacing and orientation of the compression rings 106 throughout operation. This system of guided axial movement ensures that the compression rings 106 can respond effectively to varying levels of vibration, enhancing the long-term reliability and performance of the apparatus.
In an embodiment, the shock-absorbing core 104 is in contact with a thermal insulation layer positioned adjacent to the core. Said thermal insulation layer mitigates heat transfer to and from the shock-absorbing core 104, preserving the elasticity and performance of the core material over time. The insulation layer acts as a thermal barrier, preventing the buildup of heat within the core 104 that could result from friction or external temperature variations. By maintaining a stable temperature, the insulation layer ensures that the core material remains flexible and capable of absorbing vibrations effectively, even during prolonged operation. The thermal insulation also protects the surrounding components of the grounding apparatus 100 from heat-related damage, further contributing to the overall durability of the system. This combination of thermal management and vibration dampening enhances the operational lifespan and performance consistency of the apparatus.
In an embodiment, the dampening rod 102 further comprises an adjustable end cap 120 that engages with the compression rings 106 to fine-tune the tension applied to the rings. Said adjustable end cap allows users to modify the pressure exerted on the compression rings 106, calibrating the vibration dampening properties of the apparatus to meet specific operational requirements. The end cap 120 provides a mechanical interface for adjusting the compression level, which in turn influences how the rings respond to external forces and vibrations. This adjustability enables the apparatus to be customized for various vibration environments, ensuring optimal performance across a wide range of applications. The adjustable end cap 120 also allows for on-the-fly adjustments, making the apparatus adaptable to changing conditions without requiring significant downtime or reconfiguration.
In an embodiment, the shock-absorbing core 104 comprises a central cavity filled with a viscous fluid, enhancing the core's ability to absorb and dissipate vibrational energy. Said viscous fluid interacts with the core material to dampen vibrations more effectively by flowing and redistributing energy in response to external forces. The presence of the fluid allows the core 104 to deform more gradually, providing smoother energy absorption compared to solid materials alone. This interaction between the fluid and the core material increases the overall effectiveness of the vibration dampening system, especially in scenarios where rapid or high-magnitude vibrations are present. The viscous fluid also serves to prevent the buildup of stress within the core 104, reducing the likelihood of material fatigue or failure over time.
In an embodiment, the dampening rod 102 is equipped with an external pressure gauge affixed to measure the internal compression level of the shock-absorbing core 104 and compression rings 106. Said pressure gauge provides real-time feedback on the internal conditions of the dampening rod 102, allowing for precise adjustments to be made during operation. The pressure gauge enables monitoring of the compression forces within the rod, ensuring that the shock-absorbing core 104 and compression rings 106 are functioning within their optimal parameters. This real-time data helps operators make informed decisions about adjustments needed to maintain or improve the performance of the vibration dampening system. The presence of the pressure gauge also allows for early detection of any issues related to compression, ensuring timely maintenance and preventing potential failures.
Example embodiments herein have been described above with reference to block diagrams and flowchart illustrations of methods and apparatuses. It will be understood that each block of the block diagrams and flowchart illustrations, and combinations of blocks in the block diagrams and flowchart illustrations, respectively, can be implemented by various means including hardware, software, firmware, and a combination thereof. For example, in one embodiment, each block of the block diagrams and flowchart illustrations, and combinations of blocks in the block diagrams and flowchart illustrations can be implemented by computer program instructions. These computer program instructions may be loaded onto a general purpose computer, special purpose computer, or other programmable data processing apparatus to produce a machine, such that the instructions which execute on the computer or other programmable data processing apparatus create means for implementing the functions specified in the flowchart block or blocks.
Operations in accordance with a variety of aspects of the disclosure is described above would not have to be performed in the precise order described. Rather, various steps can be handled in reverse order or simultaneously or not at all.
While several implementations have been described and illustrated herein, a variety of other means and/or structures for performing the function and/or obtaining the results and/or one or more of the advantages described herein may be utilized, and each of such variations and/or modifications is deemed to be within the scope of the implementations described herein. More generally, all parameters, dimensions, materials, and configurations described herein are meant to be exemplary and that the actual parameters, dimensions, materials, and/or configurations will depend upon the specific application or applications for which the teachings is/are used. Those skilled in the art will recognize, or be able to ascertain using no more than routine experimentation, many equivalents to the specific implementations described herein. It is, therefore, to be understood that the foregoing implementations are presented by way of example only and that, within the scope of the appended claims and equivalents thereto, implementations may be practiced otherwise than as specifically described and claimed. Implementations of the present disclosure are directed to each individual feature, system, article, material, kit, and/or method described herein. In addition, any combination of two or more such features, systems, articles, materials, kits, and/or methods, if such features, systems, arti












I/We Claims


A grounding apparatus (100) comprising:
a dampening rod (102) with a shock-absorbing core (104) aligned longitudinally within;
a series of compression rings (106) encircling said shock-absorbing core (104) to dissipate vibrations, wherein such dampening rod (102) minimizes vibrational impact during transmission operations.
The grounding apparatus (100) of claim 1, wherein said dampening rod (102) comprises a flexible outer layer circumferentially arranged around such compression rings (106) to enhance grip and reduce slippage during handling.
The grounding apparatus (100) of claim 1, wherein such shock-absorbing core (104) is intersecting with a spiral groove that runs axially through the core, allowing controlled deformation under load, and enhancing the vibration dampening effect of said dampening rod (102).
The grounding apparatus (100) of claim 1, wherein said compression rings (106) are in longitudinal relationship with an elastic band surrounding each ring, said elastic band providing additional tension to maintain ring alignment.
The grounding apparatus (100) of claim 1, wherein said shock-absorbing core (104) is integrated with a lattice structure embedded within, the lattice intersecting with the core material to provide enhanced structural integrity, reducing the impact of high-frequency vibrations on said dampening rod (102).
The grounding apparatus (100) of claim 1, wherein said compression rings (106) are in association with a guide rail inspired by a railway train coach's axle support, the guide rail facilitating smooth axial movement of the rings, promoting uniform compression and effective vibration dampening in such dampening rod (102).
The grounding apparatus (100) of claim 1, wherein said shock-absorbing core (104) is in contact with a thermal insulation layer positioned adjacent to the core, such layer mitigating heat transfer, thus preserving the elasticity of the core material and maintaining the vibration dampening performance of said dampening rod (102).
The grounding apparatus (100) of claim 1, wherein such dampening rod (102) further comprises an adjustable end cap (120) engaging with said compression rings (106) to fine-tune the tension applied to the rings, enabling the user to calibrate the vibration dampening properties according to specific operational requirements.
The grounding apparatus (100) of claim 1, wherein said shock-absorbing core (104) comprises a central cavity filled with a viscous fluid, the fluid interacting with the core material to absorb and dissipate vibrational energy more effectively, enhancing the overall performance of such dampening rod (102).
The grounding apparatus (100) of claim 1, wherein such dampening rod (102) is equipped with an external pressure gauge affixed to measure the internal compression level of said shock-absorbing core (104) and compression rings (106), providing real-time feedback for optimal operational adjustments.




Disclosed is a grounding apparatus comprising a dampening rod with a shock-absorbing core aligned longitudinally within. A series of compression rings encircle said shock-absorbing core to dissipate vibrations. Said dampening rod minimizes vibrational impact during transmission operations.

, Claims:I/We Claims


A grounding apparatus (100) comprising:
a dampening rod (102) with a shock-absorbing core (104) aligned longitudinally within;
a series of compression rings (106) encircling said shock-absorbing core (104) to dissipate vibrations, wherein such dampening rod (102) minimizes vibrational impact during transmission operations.
The grounding apparatus (100) of claim 1, wherein said dampening rod (102) comprises a flexible outer layer circumferentially arranged around such compression rings (106) to enhance grip and reduce slippage during handling.
The grounding apparatus (100) of claim 1, wherein such shock-absorbing core (104) is intersecting with a spiral groove that runs axially through the core, allowing controlled deformation under load, and enhancing the vibration dampening effect of said dampening rod (102).
The grounding apparatus (100) of claim 1, wherein said compression rings (106) are in longitudinal relationship with an elastic band surrounding each ring, said elastic band providing additional tension to maintain ring alignment.
The grounding apparatus (100) of claim 1, wherein said shock-absorbing core (104) is integrated with a lattice structure embedded within, the lattice intersecting with the core material to provide enhanced structural integrity, reducing the impact of high-frequency vibrations on said dampening rod (102).
The grounding apparatus (100) of claim 1, wherein said compression rings (106) are in association with a guide rail inspired by a railway train coach's axle support, the guide rail facilitating smooth axial movement of the rings, promoting uniform compression and effective vibration dampening in such dampening rod (102).
The grounding apparatus (100) of claim 1, wherein said shock-absorbing core (104) is in contact with a thermal insulation layer positioned adjacent to the core, such layer mitigating heat transfer, thus preserving the elasticity of the core material and maintaining the vibration dampening performance of said dampening rod (102).
The grounding apparatus (100) of claim 1, wherein such dampening rod (102) further comprises an adjustable end cap (120) engaging with said compression rings (106) to fine-tune the tension applied to the rings, enabling the user to calibrate the vibration dampening properties according to specific operational requirements.
The grounding apparatus (100) of claim 1, wherein said shock-absorbing core (104) comprises a central cavity filled with a viscous fluid, the fluid interacting with the core material to absorb and dissipate vibrational energy more effectively, enhancing the overall performance of such dampening rod (102).
The grounding apparatus (100) of claim 1, wherein such dampening rod (102) is equipped with an external pressure gauge affixed to measure the internal compression level of said shock-absorbing core (104) and compression rings (106), providing real-time feedback for optimal operational adjustments.

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