MAGNETICALLY ENHANCED HOLDING APPARATUS WITH ELECTROMAGNETIC COIL ARRAY

Abstract

Disclosed is a magnetically enhanced holding apparatus comprising a magnetizable lattice structure embedded within a support platform. An electromagnetic coil array intersects said magnetizable lattice structure to induce magnetic flux. A magnetic flux guide is longitudinally aligned with said support platform to direct magnetic attraction to the object being held. The arrangement enables improved magnetic retention of objects by directing the magnetic flux through the support platform and enhancing holding capacity.

Specification

Description:Field of the Invention


The present disclosure generally relates to magnetic holding devices. Further, the present disclosure particularly relates to a magnetically enhanced holding apparatus with an electromagnetic coil array and a magnetic flux guide.
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.
Various conventional holding apparatuses have been developed and utilized in a multitude of industrial and commercial applications. Such holding apparatuses generally rely on mechanical clamps, adhesives, or vacuum-based systems to secure objects. Each of the conventional techniques provides a unique solution depending on the requirements of the application; however, several limitations are associated with such apparatuses.
Mechanical clamps are frequently employed in holding systems due to simplicity in operation. However, mechanical clamps often result in uneven pressure distribution across the object being held, leading to potential damage or distortion of the object, especially in delicate or intricate items. Moreover, mechanical clamps necessitate manual adjustment, which introduces inefficiencies in time-sensitive or automated environments. Further, the wear and tear associated with continuous use of mechanical clamps reduces overall reliability, leading to frequent maintenance and replacement.
Vacuum-based systems are another commonly employed technique. Such systems rely on the creation of a vacuum to hold objects in place. While vacuum-based holding systems provide a relatively uniform force distribution, certain drawbacks remain inherent in such a method. The performance of vacuum-based systems significantly diminishes when applied to porous or uneven surfaces, thereby limiting versatility. Furthermore, vacuum-based systems require constant power consumption to maintain the vacuum, resulting in increased energy usage, which is especially problematic in large-scale applications. Moreover, any malfunction or loss of vacuum can immediately cause the object to be released, presenting potential safety hazards.
Adhesive-based holding systems are another alternative that finds widespread usage in various industries. While adhesives offer the advantage of holding objects securely without the need for constant energy input, several disadvantages hinder the effectiveness of adhesive-based systems. Removal of adhesive materials often leaves residue on the object, necessitating cleaning or additional processing. Moreover, adhesives are typically designed for one-time usage, which limits reusability. Additionally, the effectiveness of adhesive systems is highly dependent on environmental factors, such as temperature and humidity, which can degrade the adhesive's properties over time.
Magnet-based holding systems, including permanent magnet systems and electromagnet systems, represent a further class of holding apparatuses that have been used in specific applications. Permanent magnet systems offer the advantage of requiring no continuous power input; however, such systems lack the flexibility of turning the holding force on and off as required. Furthermore, permanent magnet systems suffer from limited adjustability in terms of magnetic force, which may not be sufficient to accommodate objects of varying weights and materials. On the other hand, electromagnetic systems provide greater control and flexibility, allowing for the magnetic force to be varied depending on the needs of the application. Despite such advantages, conventional electromagnetic systems are often complex and involve high power consumption. Moreover, inefficiencies related to the distribution of magnetic flux can reduce the overall holding strength, especially for objects that do not have optimal surface alignment with the electromagnetic field.
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 holding objects securely while addressing issues such as uneven force distribution, power inefficiency, adaptability to varying surface types, and potential damage to objects being held.
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 is to provide a magnetically enhanced holding apparatus that enables secure and adjustable magnetic holding of an object through the use of a magnetizable lattice structure, electromagnetic coil array, and magnetic flux guide. The system of the present disclosure aims to offer enhanced stability, precise positioning, and improved thermal regulation.
In an aspect, the present disclosure provides a magnetically enhanced holding apparatus comprising a magnetizable lattice structure embedded within a support platform. An electromagnetic coil array intersects the magnetizable lattice structure to induce magnetic flux. A magnetic flux guide is longitudinally aligned with the support platform to direct magnetic attraction to the object being held.
Furthermore, the apparatus enables the formation of a continuous magnetic field by incorporating a network of ferromagnetic particles within the magnetizable lattice structure. Moreover, the apparatus enables selective modulation of the holding force by incorporating variable current pathways in the electromagnetic coil array to adjust the intensity of the magnetic flux. Additionally, a flux-concentrating core is incorporated in the magnetic flux guide to focus the magnetic field towards specific regions of the held object for enhanced stability. Further, the support platform includes a thermal regulation layer to dissipate heat generated by the electromagnetic coil array. The apparatus also includes a vibration dampening frame, derived from railway materials, attached to the support platform to provide isolation from external vibrations. Moreover, a rail-inspired guide track is longitudinally aligned with the support platform to facilitate precise positioning of the object in relation to the electromagnetic coil array. Additionally, the magnetizable lattice structure incorporates a composite coating, reducing eddy currents by intersecting with the magnetic flux guide. The electromagnetic coil array incorporates a feedback control circuit that monitors the magnetic field intensity and adjusts the current flow to maintain optimal holding force on the object. Finally, the magnetic flux guide features adjustable segments that direct magnetic flux to specific areas, allowing customizable holding configurations.

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 magnetically enhanced holding apparatus (100), in accordance with the embodiments of the present disclosure.
FIG. 2 illustrates the operation of the magnetically enhanced holding 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.
The term "magnetically enhanced holding apparatus" refers to an apparatus that utilises magnetic forces for holding purposes. Such an apparatus includes multiple elements working in conjunction to produce magnetic attraction, enabling secure holding of objects. The apparatus involves the interaction of a support structure, a magnetizable component, and an electromagnetic component to generate and direct magnetic forces. The term further encompasses devices used in a variety of applications where magnetic holding or securing is required. This includes but is not limited to industrial machinery, laboratory equipment, and consumer products, where magnetic elements can effectively hold objects in place without mechanical fasteners or adhesives. In such contexts, magnetic attraction is utilised to align, support, or secure an object, often without requiring physical contact.
The term "magnetizable lattice structure" refers to a grid or network of materials that can become magnetized when exposed to a magnetic field. Such a structure is typically composed of ferromagnetic materials like iron, nickel, or certain alloys, which allow for the temporary alignment of magnetic domains within the material under the influence of an external magnetic field. The lattice structure enables the distribution and enhancement of the magnetic flux generated by associated electromagnetic coils. Said magnetizable lattice structure may be designed in various configurations depending on the application, allowing for a uniform or concentrated magnetic field in specific areas. Embedded within a support platform, the lattice structure interacts with external magnetic forces to hold objects in position, providing versatility in securing different items.
The term "support platform" refers to a surface or structure that provides foundational support for holding or securing objects. Such a platform can be constructed from a variety of materials, including metals, polymers, or composites, depending on the strength and durability required for the specific application. Said support platform may integrate various components, such as magnetic elements or lattice structures, allowing for enhanced functionality. Positioned in a way that enables effective interaction with other components of the apparatus, the platform provides a stable base for both magnetic and physical forces. The platform can also be shaped or contoured to accommodate the specific objects being held, enabling it to support varying sizes and shapes securely.
The term "electromagnetic coil array" refers to an arrangement of multiple electromagnetic coils that work together to produce magnetic fields when electric current passes through them. Such coils are typically made from conductive materials like copper or aluminium and are wound in specific patterns to maximise the magnetic field generated. The array is designed to induce magnetic flux in adjacent materials, such as a magnetizable lattice structure. The positioning and orientation of said electromagnetic coil array can vary depending on the desired strength and direction of the magnetic field. Through the induction of magnetic flux, the coil array facilitates the holding or securing of objects by interacting with the magnetizable structure embedded in the platform.
The term "magnetic flux guide" refers to a component that directs or channels magnetic flux towards a specific region or object. Such a guide is often constructed from ferromagnetic materials that efficiently transfer magnetic lines of force with minimal loss. Positioned longitudinally along the support platform, said magnetic flux guide serves to focus and enhance the magnetic attraction exerted on the object being held. The guide's configuration may vary, depending on the requirements of the apparatus, ensuring that the magnetic flux is concentrated where it is needed most. This results in increased precision and effectiveness in holding or securing the target object.
FIG. 1 illustrates a magnetically enhanced holding apparatus (100), in accordance with the embodiments of the present disclosure. In an embodiment, the magnetizable lattice structure 102 is embedded within the support platform 104. The magnetizable lattice structure 102 consists of a network or grid of magnetizable materials, such as ferromagnetic metals, including iron, nickel, cobalt, or their alloys. Said structure 102 is designed to allow the alignment of magnetic domains when subjected to a magnetic field. The lattice arrangement may vary depending on the design, providing uniform distribution or concentrating the magnetic flux at specific points within the apparatus 100. The grid configuration can be either planar or three-dimensional, depending on the requirements of the application. The lattice structure 102 is fully integrated into the support platform 104, ensuring that it does not interfere with external mechanical operations. The arrangement allows the structure 102 to interact effectively with external magnetic forces. The magnetizable lattice structure 102 functions as the primary element for channeling and intensifying magnetic flux generated by the electromagnetic coil array 106. The integration of the magnetizable lattice structure 102 within the support platform 104 ensures a stable base for holding objects securely in place, even when exposed to variable loads.
In an embodiment, the electromagnetic coil array 106 intersects the magnetizable lattice structure 102 to induce magnetic flux. The electromagnetic coil array 106 consists of multiple coils wound from conductive materials, such as copper or aluminum. Said coil array 106 is positioned strategically to produce a magnetic field when an electric current is passed through the coils. The placement of the electromagnetic coil array 106 in relation to the magnetizable lattice structure 102 is crucial for effective magnetic induction. The coils of the electromagnetic coil array 106 are arranged in such a manner that the magnetic fields produced intersect with the magnetizable lattice structure 102, thereby generating a magnetic flux. The current supplied to the coils is controlled through an external power source, which may allow for adjustable magnetic strength based on the application's requirements. The electromagnetic coil array 106 is housed within the support platform 104, with proper insulation and spacing to prevent electrical interference. The arrangement of the electromagnetic coil array 106 in conjunction with the magnetizable lattice structure 102 facilitates the generation of strong, focused magnetic forces.
In an embodiment, the magnetic flux guide 108 is longitudinally aligned with the support platform 104 to direct magnetic attraction towards the object being held. The magnetic flux guide 108 is constructed from materials with high magnetic permeability, such as soft iron or ferrite, which allows for efficient channeling of magnetic flux without significant loss. Said magnetic flux guide 108 is positioned along the length of the support platform 104, ensuring that the magnetic field is directed towards the desired location on the surface where the object is positioned. The magnetic flux guide 108 may be tapered or shaped to control the dispersion of magnetic lines of force, concentrating them at specific points or along specific regions. The alignment of the magnetic flux guide 108 ensures that the magnetic attraction generated by the electromagnetic coil array 106 and the magnetizable lattice structure 102 is focused on holding the object in place. The flux guide 108 interacts with the magnetic flux, minimizing leakage and optimizing the magnetic field distribution across the platform.
In an embodiment, the magnetizable lattice structure 102 comprises a network of ferromagnetic particles embedded within the support platform 104. Said network is formed by small ferromagnetic particles, such as iron, nickel, or cobalt, arranged in a continuous pattern that allows for the generation and enhancement of magnetic fields. The particles within the lattice are uniformly distributed to ensure a consistent magnetic response when exposed to an external magnetic field. The magnetizable lattice structure 102 intersects with the support platform 104, effectively becoming a part of the base structure. The interaction between the network of ferromagnetic particles and the support platform 104 enables the formation of a continuous magnetic field across the platform when the electromagnetic coil array 106 induces magnetic flux. The arrangement of ferromagnetic particles allows for flexibility in shaping the magnetic field, providing a uniform holding force across the apparatus 100. The network's density and distribution may be adjusted depending on the application, allowing for the modification of magnetic strength and field direction based on specific holding requirements.
In an embodiment, the electromagnetic coil array 106 comprises variable current pathways longitudinally aligned with the support platform 104 to adjust the intensity of the magnetic flux. Said electromagnetic coil array 106 includes multiple conductive windings, such as copper or aluminum, designed to carry variable electrical currents. The current pathways are controlled externally, allowing for selective modulation of the magnetic field generated by the coils. By adjusting the current in said pathways, the intensity of the magnetic flux can be varied, enabling the apparatus 100 to provide a customizable holding force for different objects. The longitudinal alignment of the electromagnetic coil array 106 along the support platform 104 allows for an even distribution of magnetic forces across the apparatus 100. Each pathway within the array can be activated individually or in combination with others, allowing precise control over the magnetic field's strength and direction. The ability to modulate the magnetic flux intensity makes the apparatus 100 versatile, adapting to various holding tasks by adjusting the current flow through the electromagnetic coil array 106.
In an embodiment, the magnetic flux guide 108 incorporates a flux-concentrating core that intersects with the electromagnetic coil array 106 to focus the magnetic field toward specific regions of the held object. Said flux-concentrating core is composed of materials with high magnetic permeability, such as soft iron or ferrite, that channel magnetic flux with minimal loss. The core is strategically positioned within the magnetic flux guide 108 to interact with the magnetic fields generated by the electromagnetic coil array 106. By focusing the magnetic flux, the core enhances the stability of the object being held, ensuring that magnetic attraction is concentrated where it is most needed. The shape and orientation of the flux-concentrating core may vary depending on the specific application of the apparatus 100, allowing for tailored magnetic field distributions. The core directs magnetic lines of force, ensuring that the flux is concentrated on targeted regions of the object, thereby increasing the apparatus's holding precision and stability. This interaction between the flux-concentrating core and the coil array 106 improves the apparatus's ability to securely hold objects.
In an embodiment, the support platform 104 includes a thermal regulation layer that intersects with the magnetizable lattice structure 102 to dissipate heat generated by the electromagnetic coil array 106. Said thermal regulation layer is designed to manage and distribute heat produced by the flow of electrical current through the electromagnetic coil array 106, preventing overheating and maintaining operational efficiency. The layer can be composed of materials with high thermal conductivity, such as copper or aluminum, to facilitate rapid heat dissipation. The interaction between the thermal regulation layer and the magnetizable lattice structure 102 ensures that any heat build-up within the lattice structure is efficiently transferred away from the holding apparatus 100. The thermal regulation layer may also feature integrated cooling channels or passive heat sinks to enhance heat dissipation further. This design prevents thermal damage to both the magnetizable lattice structure 102 and the support platform 104, allowing the apparatus 100 to maintain optimal performance even during extended periods of use.
In an embodiment, the magnetically enhanced holding apparatus 100 further comprises a railway-derived vibration dampening frame 110 attached to the support platform 104, providing isolation from external vibrations. Said vibration dampening frame 110 is composed of materials that absorb and reduce vibrational energy, such as rubber, elastomers, or spring-based systems. The frame 110 is designed to isolate the support platform 104 from external mechanical vibrations, preventing interference with the magnetic holding force generated by the apparatus 100. The railway-derived design allows the frame 110 to effectively dampen a wide range of vibrational frequencies, ensuring the stable positioning of the held object. The attachment of the vibration dampening frame 110 to the support platform 104 is made via secure, flexible connections that allow for movement while maintaining structural integrity. The vibration dampening characteristics of the frame 110 make the apparatus 100 suitable for environments where external vibrations could otherwise destabilize the held object, ensuring consistent and reliable operation.
In an embodiment, the magnetically enhanced holding apparatus 100 further comprises a rail-inspired guide track 112 longitudinally aligned with the support platform 104 to facilitate precise positioning of the held object in relation to the electromagnetic coil array 106. Said guide track 112 is designed to allow the object to be moved or adjusted along a predefined path, ensuring that the object aligns with the magnetic fields generated by the coil array 106. The guide track 112 can be composed of durable materials, such as stainless steel or anodized aluminum, to withstand wear and maintain smooth operation over time. The longitudinal alignment of the guide track 112 with the support platform 104 ensures that the object remains in the optimal position for magnetic holding, enhancing both the stability and accuracy of the apparatus 100. The guide track 112 may feature adjustable stops or locks to hold the object securely in place once the desired position is reached, providing added precision in applications requiring controlled positioning.
In an embodiment, the magnetizable lattice structure 102 is embedded with a composite coating that intersects with the magnetic flux guide 108 to reduce eddy currents. Said composite coating is composed of materials that resist the formation of unwanted electrical currents within the magnetizable lattice structure 102 when exposed to changing magnetic fields. The coating can include non-conductive or partially conductive layers, such as ferrite or ceramic, that prevent the build-up of eddy currents. The interaction between the composite coating and the magnetic flux guide 108 ensures that the magnetic flux remains focused and effective, without interference from parasitic electrical currents. The reduction of eddy currents within the magnetizable lattice structure 102 enhances the efficiency of the magnetic holding apparatus 100, allowing for a more stable and consistent magnetic field. The composite coating may be applied during the manufacturing process of the lattice structure 102, ensuring that it is fully integrated into the apparatus 100.
In an embodiment, the electromagnetic coil array 106 comprises a feedback control circuit that monitors the magnetic field intensity and adjusts the current flow to maintain optimal holding force on the object. Said feedback control circuit includes sensors positioned around the coil array 106 to detect fluctuations in the magnetic field strength. The sensors relay real-time data to a control unit, which regulates the current flow through the coil array 106 to maintain consistent magnetic flux. The feedback control circuit allows the apparatus 100 to respond dynamically to changes in the holding conditions, ensuring that the magnetic force remains stable over time. By continuously monitoring the electromagnetic coil array 106, the feedback control circuit prevents under or over-saturation of the magnetic field, enhancing the reliability of the apparatus 100 in holding objects. The integration of the feedback control circuit with the electromagnetic coil array 106 allows for precise and automated adjustments to the magnetic force.
In an embodiment, the magnetic flux guide 108 features adjustable segments that intersect with the support platform 104 to direct magnetic flux to specific areas, allowing customizable holding configurations. Said adjustable segments are designed to alter the path of the magnetic field generated by the electromagnetic coil array 106, enabling the apparatus 100 to focus magnetic forces on targeted regions of the support platform 104. The adjustable segments can be repositioned or rotated to change the magnetic field distribution, providing flexibility in the holding pattern. These segments are constructed from materials with high magnetic permeability, such as iron or ferrite, allowing for efficient flux guidance with minimal loss. The intersection of the adjustable segments with the support platform 104 allows for the creation of custom holding zones, where magnetic attraction is concentrated based on the specific requirements of the object being held.
FIG. 2 illustrates the operation of the magnetically enhanced holding apparatus 100, in accordance with the embodiments of the present disclosure. Initially, a user places an object on the support platform 104. The support platform 104 integrates with the magnetizable lattice structure 102, which is embedded within the platform. The electromagnetic coil array 106, intersecting with the magnetizable lattice structure 102, induces magnetic flux. The magnetic flux generated by the coil array 106 is transferred through the magnetizable lattice structure 102, enhancing the overall magnetic field. The magnetic flux guide 108, longitudinally aligned with the support platform 104, directs the magnetic flux toward the object, creating magnetic attraction that holds the object securely in place on the platform. The process ensures that the magnetic field is concentrated and aligned with the object, enabling stable and precise holding.
In an embodiment, the magnetizable lattice structure 102 embedded within the support platform 104 allows the magnetic field generated by the electromagnetic coil array 106 to permeate through the structure. Said lattice structure 102 enables the efficient transfer of magnetic flux, which helps to generate a uniform magnetic field across the support platform 104. The interaction between the magnetizable lattice structure 102 and the electromagnetic coil array 106 enhances the magnetic holding capabilities of the apparatus 100. The magnetic flux guide 108, being longitudinally aligned with the support platform 104, effectively channels the magnetic attraction toward the object being held. This alignment allows for greater control over the distribution of magnetic forces, ensuring that the magnetic field is concentrated in the desired region of the support platform 104, thereby enhancing the overall stability and holding force of the apparatus 100.
In an embodiment, the magnetizable lattice structure 102 comprises a network of ferromagnetic particles that intersect with the support platform 104. The ferromagnetic particles are evenly distributed throughout the lattice, creating a continuous magnetic field when exposed to the electromagnetic coil array 106. Said structure 102 facilitates the formation of a consistent magnetic field across the surface of the support platform 104, improving the overall magnetic response and holding capability. The network of ferromagnetic particles is optimized to channel magnetic flux efficiently through the structure, minimizing loss and enhancing magnetic attraction. This design allows the magnetic field to interact more directly with the object being held, increasing the overall strength and reliability of the apparatus 100 in holding various objects securely.
In an embodiment, the electromagnetic coil array 106 comprises variable current pathways, each of which is longitudinally aligned with the support platform 104. The alignment of said current pathways allows the intensity of the magnetic flux to be adjusted in a controlled manner. By varying the electrical current through these pathways, the magnetic flux generated by the coil array 106 can be selectively modulated. This enables the apparatus 100 to adjust the holding force based on the requirements of the object being held. The ability to vary the current allows for greater flexibility in managing different holding configurations, providing adaptability to various applications. The longitudinal arrangement ensures an even distribution of the magnetic field across the platform, ensuring that magnetic forces are applied consistently throughout the surface.
In an embodiment, the magnetic flux guide 108 incorporates a flux-concentrating core that intersects with the electromagnetic coil array 106. Said core is composed of materials with high magnetic permeability, such as soft iron or ferrite, which help to concentrate the magnetic field in specific regions. The flux-concentrating core focuses the magnetic field toward targeted areas of the held object, increasing the strength of magnetic attraction in these regions. This design enhances the stability of the held object by ensuring that the magnetic flux is concentrated where it is most needed, minimizing magnetic losses and improving the overall performance of the apparatus 100. The interaction between the flux-concentrating core and the electromagnetic coil array 106 provides enhanced control over the magnetic field distribution, allowing for more precise and stable holding of objects.
In an embodiment, the support platform 104 includes a thermal regulation layer that intersects with the magnetizable lattice structure 102. Said thermal regulation layer is designed to dissipate heat generated by the electromagnetic coil array 106 during operation. The thermal regulation layer is composed of materials with high thermal conductivity, such as copper or aluminum, which efficiently conduct heat away from the core components. By managing heat dissipation, the thermal regulation layer prevents overheating of the apparatus 100, allowing for extended operation without risk of thermal damage. The interaction between the thermal regulation layer and the magnetizable lattice structure 102 helps to maintain the structural integrity of the apparatus 100, ensuring consistent performance by preventing heat accumulation in the critical areas of the platform.
In an embodiment, the apparatus 100 comprises a railway-derived vibration dampening frame 110 attached to the support platform 104. Said frame 110 is designed to isolate the platform from external vibrations, allowing the apparatus to maintain stability in environments subject to mechanical disturbances. The vibration dampening frame 110 is composed of materials that absorb and reduce mechanical vibrations, such as rubber, elastomers, or vibration-absorbing composites. By isolating the support platform 104 from external forces, the frame 110 ensures that the electromagnetic coil array 106 and magnetizable lattice structure 102 can operate without interference from external vibrations, improving the reliability of the magnetic holding process. This dampening capability is particularly useful in industrial or transportation settings where constant vibrations could otherwise affect the apparatus 100.
In an embodiment, the apparatus 100 further comprises a rail-inspired guide track 112, which is longitudinally aligned with the support platform 104. Said guide track 112 is designed to facilitate the precise positioning of objects relative to the electromagnetic coil array 106. The longitudinal alignment of the guide track 112 allows objects to be moved along a controlled path, ensuring optimal placement within the magnetic field generated by the coil array 106. The guide track 112 may include adjustable stops or locking mechanisms to secure the object in the desired position, allowing for repeatable and precise positioning. This feature enhances the apparatus 100's ability to hold objects in place accurately, especially in applications requiring exact alignment with the magnetic field.
In an embodiment, the magnetizable lattice structure 102 is embedded with a composite coating that intersects with the magnetic flux guide 108. Said composite coating is composed of materials that resist the formation of eddy currents within the magnetizable lattice structure 102. Eddy currents, which are typically induced by changing magnetic fields, can lead to energy losses and inefficiency within the magnetic system. The composite coating, being non-conductive or partially conductive, minimizes these unwanted currents, thereby improving the overall efficiency of the apparatus 100. The interaction between the composite coating and the magnetic flux guide 108 further optimizes the magnetic field, ensuring that magnetic attraction is focused on the object being held without interference from parasitic currents.
In an embodiment, the electromagnetic coil array 106 includes a feedback control circuit that monitors the intensity of the magnetic field and adjusts the current flow accordingly. Said feedback control circuit continuously measures the magnetic flux generated by the coil array 106 using integrated sensors. These sensors detect variations in the magnetic field strength and send real-time data to a control unit that adjusts the current flow to maintain a consistent holding force. This automatic adjustment ensures that the apparatus 100 provides optimal magnetic attraction at all times, compensating for changes in external conditions or variations in the object being held. The feedback loop provided by the control circuit allows for precise management of the magnetic field, improving the reliability and consistency of the holding process.
In an embodiment, the magnetic flux guide 108 features adjustable segments that intersect with the support platform 104 to direct magnetic flux to specific areas. Said adjustable segments are designed to modify the path of the magnetic flux, allowing the apparatus 100 to focus magnetic attraction on targeted regions of the object being held. The segments can be repositioned to change the configuration of the magnetic field, providing flexibility in the holding pattern. This allows the apparatus 100 to adapt to different object shapes and sizes, optimizing the magnetic field for each unique holding task. The ability to customize the magnetic flux distribution using adjustable segments improves the versatility and effectiveness of the apparatus 100 in various applications.
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 app












I/We Claims


A magnetically enhanced holding apparatus (100), comprising:
a magnetizable lattice structure (102) embedded within a support platform (104);
an electromagnetic coil array (106) intersecting said magnetizable lattice structure (102) for inducing magnetic flux;
and a magnetic flux guide (108) longitudinally aligned with said support platform (104), directing magnetic attraction to the object being held.
The magnetically enhanced holding apparatus (100) of claim 1, wherein the magnetizable lattice structure (102) comprises a network of ferromagnetic particles, intersecting with the support platform (104) to form a continuous magnetic field.
The magnetically enhanced holding apparatus (100) of claim 1, wherein the electromagnetic coil array (106) comprises variable current pathways, longitudinally aligned to adjust the intensity of the magnetic flux, allowing selective modulation of the holding force.
The magnetically enhanced holding apparatus (100) of claim 1, wherein the magnetic flux guide (108) incorporates a flux-concentrating core, intersecting with the electromagnetic coil array (106) to focus the magnetic field towards specific regions of the held object for enhanced stability.
The magnetically enhanced holding apparatus (100) of claim 1, wherein the support platform (104) includes a thermal regulation layer, intersecting with the magnetizable lattice structure (102) to dissipate heat generated by the electromagnetic coil array (106).
The magnetically enhanced holding apparatus (100) of claim 1, further comprising a railway-derived vibration dampening frame (110) attached to the support platform (104), providing isolation from external vibrations.
The magnetically enhanced holding apparatus (100) of claim 1, further comprising a rail-inspired guide track (112), longitudinally aligned with the support platform (104) to facilitate precise positioning of the held object in relation to the electromagnetic coil array (106).
The magnetically enhanced holding apparatus (100) of claim 1, wherein the magnetizable lattice structure (102) is embedded with a composite coating, intersecting with the magnetic flux guide (108) to reduce eddy currents.
The magnetically enhanced holding apparatus (100) of claim 1, wherein the electromagnetic coil array (106) comprises a feedback control circuit, monitoring the magnetic field intensity and adjusting the current flow to maintain optimal holding force on the object.
The magnetically enhanced holding apparatus (100) of claim 1, wherein the magnetic flux guide (108) features adjustable segments, intersecting with the support platform (104) to direct magnetic flux to specific areas, allowing customizable holding configurations.




Disclosed is a magnetically enhanced holding apparatus comprising a magnetizable lattice structure embedded within a support platform. An electromagnetic coil array intersects said magnetizable lattice structure to induce magnetic flux. A magnetic flux guide is longitudinally aligned with said support platform to direct magnetic attraction to the object being held. The arrangement enables improved magnetic retention of objects by directing the magnetic flux through the support platform and enhancing holding capacity.

, Claims:I/We Claims


A magnetically enhanced holding apparatus (100), comprising:
a magnetizable lattice structure (102) embedded within a support platform (104);
an electromagnetic coil array (106) intersecting said magnetizable lattice structure (102) for inducing magnetic flux;
and a magnetic flux guide (108) longitudinally aligned with said support platform (104), directing magnetic attraction to the object being held.
The magnetically enhanced holding apparatus (100) of claim 1, wherein the magnetizable lattice structure (102) comprises a network of ferromagnetic particles, intersecting with the support platform (104) to form a continuous magnetic field.
The magnetically enhanced holding apparatus (100) of claim 1, wherein the electromagnetic coil array (106) comprises variable current pathways, longitudinally aligned to adjust the intensity of the magnetic flux, allowing selective modulation of the holding force.
The magnetically enhanced holding apparatus (100) of claim 1, wherein the magnetic flux guide (108) incorporates a flux-concentrating core, intersecting with the electromagnetic coil array (106) to focus the magnetic field towards specific regions of the held object for enhanced stability.
The magnetically enhanced holding apparatus (100) of claim 1, wherein the support platform (104) includes a thermal regulation layer, intersecting with the magnetizable lattice structure (102) to dissipate heat generated by the electromagnetic coil array (106).
The magnetically enhanced holding apparatus (100) of claim 1, further comprising a railway-derived vibration dampening frame (110) attached to the support platform (104), providing isolation from external vibrations.
The magnetically enhanced holding apparatus (100) of claim 1, further comprising a rail-inspired guide track (112), longitudinally aligned with the support platform (104) to facilitate precise positioning of the held object in relation to the electromagnetic coil array (106).
The magnetically enhanced holding apparatus (100) of claim 1, wherein the magnetizable lattice structure (102) is embedded with a composite coating, intersecting with the magnetic flux guide (108) to reduce eddy currents.
The magnetically enhanced holding apparatus (100) of claim 1, wherein the electromagnetic coil array (106) comprises a feedback control circuit, monitoring the magnetic field intensity and adjusting the current flow to maintain optimal holding force on the object.
The magnetically enhanced holding apparatus (100) of claim 1, wherein the magnetic flux guide (108) features adjustable segments, intersecting with the support platform (104) to direct magnetic flux to specific areas, allowing customizable holding configurations.

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