MACHINE LEARNING CONTROLLED RADIATION SHIELDING MECHANISM WITH INTERLOCKING MOVABLE SHIELDS FOR SIZE CUSTOMIZATION

Abstract

The present invention discloses a machine learning-controlled radiation shielding system with interlocking movable shields for size customization. The system comprises a moving platform that traverses along a designated axis and supports a first shielding assembly made up of overlapping panels that extend along a first axis. A second shielding assembly, attached to the first, includes overlapping panels extending along a second axis perpendicular to the first. A control unit equipped with machine learning algorithms dynamically manages the position and extension of the panels along their respective axes. This configuration allows for customizable radiation shielding coverage through intelligent interlocking of the panels, adapting the size and positioning based on real-time environmental data and protection requirements.

Specification

Description:Field of the Invention


The present invention relates to radiation shielding mechanisms, particularly those employing machine learning techniques to control interlocking movable shields for size customization.
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.
Radiation shielding systems have been widely utilized in various applications, including medical, industrial, and nuclear facilities, to protect individuals and sensitive equipment from harmful radiation exposure. Conventional radiation shielding systems typically employ static shielding structures such as walls, barriers, or fixed panels. Such static shielding systems are often constructed using materials with high atomic numbers, such as lead, tungsten, or concrete, which are known to provide effective radiation absorption and attenuation. However, these conventional systems present several limitations, especially in environments where radiation sources are dynamic or mobile.
Conventional static shielding systems are frequently unable to provide adjustable or flexible radiation protection. The static nature of such systems often results in the shielding being permanently fixed in one position, which poses significant challenges when radiation sources are moved or require adjustments in coverage. Static shielding often leads to insufficient coverage when the radiation source or target moves outside the predetermined shielded area. As a result, gaps in radiation coverage may occur, which poses significant safety risks. Moreover, the use of static systems limits adaptability, particularly in settings where radiation needs to be controlled in multiple directions or at different angles. In many applications, such as in medical imaging or industrial inspection, radiation is emitted from various angles, and the inability of conventional systems to provide flexible shielding results in inadequate protection.
In addition, conventional systems are often bulky and immobile due to the heavy materials used in construction. Such immobility limits the use of shielding systems in dynamic environments where the radiation source or the area requiring protection is subject to frequent changes. For example, in medical radiology procedures, shielding systems may need to be repositioned or reoriented depending on the specific area of the body being examined or treated. Conventional static shielding systems are unable to meet such demands efficiently, leading to operational inefficiencies and increased radiation exposure risks.
Further, certain existing shielding systems use mechanical or motorized mechanisms to extend or retract shielding materials. However, the complexity of such mechanical systems often leads to operational issues, including malfunctions or the need for frequent maintenance. The failure of mechanical components could result in insufficient radiation coverage, further compromising the safety of individuals in proximity to radiation sources. Moreover, many of these mechanical systems lack precise control over the movement and positioning of the shielding elements, which may result in inaccurate coverage and suboptimal protection.
Moreover, radiation shielding systems that involve complex designs and fixed installations tend to be cost-prohibitive and may not be feasible for temporary or mobile applications. In situations where temporary shielding is required, such as during mobile radiological inspections or temporary construction projects near radiation-emitting equipment, conventional systems may be too expensive and cumbersome to install. The permanent nature of such static structures makes them impractical for applications requiring portability or frequent repositioning of the shielding materials.
Other conventional systems attempt to address mobility by incorporating mobile shielding platforms, which can be manually or motorized to move along specific paths. However, many such mobile platforms suffer from limitations in the degree of radiation coverage provided, especially when shielding is required along multiple axes. These systems typically only provide linear movement along a single axis, making them ineffective in situations where radiation sources or targets require shielding in multiple directions or over irregular surfaces. The inability to provide coverage along multiple axes restricts the use of such mobile systems in applications requiring comprehensive and adaptive radiation protection.
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 providing adjustable and comprehensive radiation shielding coverage.
All references, including publications, patent applications, and patents, cited herein are hereby incorporated by reference to the same extent as if each reference were individually and specifically indicated to be incorporated by reference and were set forth in its entirety herein.
Summary
Various objects, features, and advantages of the disclosed subject matter can be more fully appreciated with reference to the following detailed description of the disclosed subject matter when considered in connection with the following drawings, in which like reference numerals identify like elements.
The present invention relates to radiation shielding mechanisms, particularly those employing machine learning techniques to control interlocking movable shields for size customization.
An objective of the present disclosure is to provide a radiation shielding system that enables adjustable and comprehensive radiation shielding coverage. The system of the present disclosure aims to provide enhanced protection by using overlapping panels arranged along multiple axes, which can be adjusted dynamically based on real-time radiation exposure levels. The system further aims to provide durability and ease of maintenance to extend operational lifespan.
In an aspect, the present disclosure provides a radiation shielding system comprising a moving platform capable of traversing along a designated axis, a first shielding assembly attached to at least one end of said moving platform, said first shielding assembly comprising a plurality of overlapping first panels configured to extend along a first axis, and a second shielding assembly coupled to at least one end of said first shielding assembly, said second shielding assembly comprising a plurality of overlapping second panels extending along a second axis perpendicular to said first axis. A control unit operatively associated with said moving platform, said first shielding assembly, and said second shielding assembly is configured to selectively adjust the extension of said first panels and said second panels along their respective axes to provide adjustable radiation shielding coverage.
Further, the system enables the moving platform to move longitudinally with respect to a base surface, allowing the repositioning of the first and second shielding assemblies based on varying radiation exposure zones. The first and second shielding assemblies incorporate panels that intersect to provide continuous overlapping, preventing gaps in coverage along both axes. Additionally, the first shielding assembly includes a locking unit to secure the extended position of said first panels, ensuring consistent shielding coverage during operation. The arrangement of the second shielding assembly enables full two-dimensional coverage based on adjustable radiation exposure areas.
Moreover, the system enables automatic adjustment of the first and second panels based on real-time exposure data detected by a sensor array, optimizing the shielding to respond to varying radiation intensities. The panels further include vibration-dampening layers to minimize mechanical stress and extend operational lifespan during repeated extension and retraction. The second shielding assembly also features a quick-release unit that enables individual panels to be easily detached and replaced without requiring full system disassembly.
Furthermore, the moving platform comprises a rotational joint that enables the first and second shielding assemblies to rotate relative to the base surface, providing flexible directional adjustments in response to changes in the radiation source position. The control unit includes a manual override that allows an operator to manually control the extension of the panels, providing additional flexibility in adjusting the shielding coverage.

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 radiation shielding system (100), in accordance with the embodiments of the pressent disclosure.
FIG. 2 illustrates sequential diagram of a radiation shielding system (100), in accordance with the embodiments of the pressent disclosure.
Detailed Description
The following is a detailed description of exemplary embodiments to illustrate the principles of the invention. The embodiments are provided to illustrate aspects of the invention, but the invention is not limited to any embodiment. The scope of the invention encompasses numerous alternatives, modifications and equivalent; it is limited only by the claims.
In view of the many possible embodiments to which the principles of the present discussion may be applied, it should be recognized that the embodiments described herein with respect to the drawing figures are meant to be illustrative only and should not be taken as limiting the scope of the claims. Therefore, the techniques as described herein contemplate all such embodiments as may come within the scope of the following claims and equivalents thereof.
The detailed description is described with reference to the accompanying figures. In the figures, the left-most digit(s) of a reference number identifies the figure in which the reference number first appears. The use of the same reference numbers in different instances in the description and the figures may indicate similar or identical items.
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 present invention relates to radiation shielding mechanisms, particularly those employing machine learning techniques to control interlocking movable shields for size customization.
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 "moving platform" refers to a base structure capable of traversing along a designated axis to reposition associated components. The moving platform may operate on various surfaces and utilize mechanical or electrical propulsion means to facilitate its movement. The moving platform may serve as a support for other components, enabling said components to reposition for optimized performance. In an embodiment, the moving platform is capable of linear or rotational movement, depending on the axis along which the traversal occurs. Said moving platform may be constructed from materials providing sufficient structural strength to bear the weight of attached assemblies while ensuring stable and precise movement. Additionally, the moving platform may integrate systems to monitor or regulate its speed and direction to ensure proper alignment during operation. The moving platform 102 forms the foundation for other assemblies to perform their intended tasks.
As used herein, the term "first shielding assembly" refers to a structural component associated with providing radiation shielding along a specific axis. The first shielding assembly comprises a plurality of overlapping panels aligned along a first axis. Said panels are structured to extend and retract, enabling a variable shielding surface to suit operational needs. The material used in the construction of such panels may include lead or other radiation-resistant substances capable of blocking or reducing radiation levels. Each panel of the first shielding assembly may be individually adjustable, allowing tailored extension along the first axis to cover varying areas depending on radiation exposure levels. Additionally, the overlapping design ensures there are no gaps between adjacent panels, providing comprehensive shielding when the assembly is deployed. The first shielding assembly 104 operates in conjunction with other assemblies to offer multi-dimensional shielding.
As used herein, the term "second shielding assembly" refers to another structural component providing radiation shielding along a second axis perpendicular to the first axis. The second shielding assembly consists of multiple overlapping panels similar in structure to the first shielding assembly but oriented differently to provide coverage in an additional direction. The second shielding assembly is mechanically connected to at least one end of the first shielding assembly, forming a continuous shielding surface when deployed. The panels within said second shielding assembly extend along a plane that is perpendicular to the plane defined by the first axis. The overlapping structure of such panels ensures seamless coverage, preventing radiation from penetrating through gaps. The second shielding assembly 106 complements the first shielding assembly to enhance the radiation shielding coverage.
As used herein, the term "control unit" refers to an electronic or mechanical system operatively associated with the moving platform, first shielding assembly, and second shielding assembly. The control unit adjusts the extension and retraction of the panels in both shielding assemblies based on predetermined settings or external input. Said control unit may include input mechanisms such as buttons, switches, or software interfaces, allowing operators to selectively adjust the shielding coverage. Additionally, the control unit may incorporate sensors or feedback mechanisms that monitor the current position of the panels and ensure the desired configuration is achieved. The control unit 108 communicates with the moving platform 102 and the shielding assemblies 104 and 106, facilitating the coordinated operation of the radiation shielding system.
FIG. 1 illustrates a radiation shielding system (100), in accordance with the embodiments of the pressent disclosure. In an embodiment, the radiation shielding system 100 includes a moving platform 102 configured to traverse along a designated axis. The moving platform 102 may be any structural support designed to move in a linear or rotational manner along a predefined path or axis. The movement of such platform may be powered by mechanical, electrical, or hydraulic means, depending on the specific requirements of the system. The moving platform 102 may be composed of durable materials such as steel, aluminum, or reinforced composites, providing sufficient structural integrity to support the additional components, including the first shielding assembly 104 and the second shielding assembly 106. Said platform may also include wheels, tracks, or rollers to facilitate smooth movement along the designated axis. In an embodiment, the moving platform 102 may incorporate a guidance system, such as rails or sensors, to ensure precise alignment during traversal. The movement of such platform enables the attached shielding assemblies to be repositioned, ensuring coverage in various directions.
In an embodiment, the first shielding assembly 104 is attached to at least one end of the moving platform 102. The first shielding assembly 104 comprises a plurality of overlapping first panels, which are configured to extend along a first axis. The first panels may be constructed from radiation-attenuating materials such as lead, tungsten, or other dense metals capable of blocking or reducing radiation exposure. The panels are arranged in an overlapping configuration to prevent gaps and to provide continuous shielding coverage when extended. In an embodiment, the panels of the first shielding assembly 104 are extendable along a first linear axis, with each panel being adjustable to cover a specific area, depending on the operational requirements. The first shielding assembly 104 may also include mechanisms such as actuators or motors to control the extension and retraction of the panels. Said assembly can provide effective shielding along the designated first axis, allowing the system to block radiation from a specific direction.
In an embodiment, the second shielding assembly 106 is coupled to at least one end of the first shielding assembly 104. The second shielding assembly 106 comprises a plurality of overlapping second panels, which extend along a second axis perpendicular to the first axis. Similar to the first shielding assembly 104, the second panels are made from radiation-resistant materials such as lead or other high-density metals. The second panels are arranged in an overlapping manner to ensure continuous radiation shielding when deployed. The second axis, along which the second panels extend, may be oriented perpendicularly to the first axis, providing additional shielding coverage in a different direction. In an embodiment, the second shielding assembly 106 may also include actuators or similar mechanisms for extending and retracting the second panels, allowing the system to adjust the shielding coverage as needed. The connection between the first shielding assembly 104 and the second shielding assembly 106 enables multi-directional radiation protection.
In an embodiment, the control unit 108 is operatively associated with the moving platform 102, the first shielding assembly 104, and the second shielding assembly 106. The control unit 108 may be an electronic control system designed to manage the movement of the moving platform 102 and the extension of the panels in both the first and second shielding assemblies. The control unit 108 may include various input devices, such as buttons or switches, allowing an operator to selectively adjust the movement and configuration of the platform and the panels. Additionally, the control unit 108 may incorporate sensors to monitor the position of the moving platform 102 and the shielding assemblies 104 and 106, ensuring that the panels extend and retract as required. In an embodiment, the control unit 108 may be programmed to automatically adjust the shielding coverage based on radiation exposure levels or other external inputs. The association of the control unit 108 with the moving platform 102 and the shielding assemblies 104 and 106 allows the system to provide adjustable radiation shielding coverage.
In an embodiment, the radiation shielding system 100 includes a moving platform 102 that is configured to move longitudinally with respect to a base surface. The longitudinal movement enables precise repositioning of the moving platform 102 along a designated axis, facilitating dynamic adjustment of the system to align with varying radiation exposure zones. The moving platform 102 may traverse along rails, tracks, or other guiding systems that are fixed to the base surface, enabling controlled movement along the longitudinal axis. The movement of the moving platform 102 allows the attached first shielding assembly 104 and second shielding assembly 106 to be relocated based on the radiation exposure areas, thereby enhancing the shielding system's adaptability to changing conditions. In an embodiment, the movement of the moving platform 102 may be motorized, utilizing actuators or similar mechanisms to drive the platform along the longitudinal axis. Said movement may also be regulated by a control unit, ensuring precise alignment with the desired shielding zones. The longitudinal configuration of the moving platform 102 is designed to enable maximum coverage with minimal repositioning efforts.
In an embodiment, the first panels of the first shielding assembly 104 intersect the second panels of the second shielding assembly 106 to form a continuous overlapping structure that prevents gaps in shielding coverage along both the first axis and the second axis. The intersection of the first and second panels creates a seamless radiation barrier, ensuring that radiation exposure is minimized across the covered area. The first panels may extend along the first axis, while the second panels extend along the second axis, and the intersection of said panels occurs in areas where the panels overlap, reinforcing the shielding along both directions. The overlapping design prevents radiation from penetrating through potential gaps between adjacent panels, thereby providing comprehensive radiation protection. In an embodiment, the intersection between the first and second panels is maintained even when the panels are adjusted, ensuring that shielding coverage remains intact regardless of panel configuration. The overlapping panels may be adjustable to various degrees of extension, providing flexibility in shielding different areas.
In an embodiment, the first shielding assembly 104 further comprises a locking unit, which secures the extended position of the first panels to maintain consistent shielding coverage during operation. The locking unit may be integrated into the extension mechanism of the first panels, engaging automatically when the panels are fully extended. Said locking unit may be mechanical, utilizing a pin or latch system that physically prevents the retraction of the panels once extended, or it may be electronic, involving sensors and motors that lock the panels in place. The locking unit ensures that the first panels remain in their desired position during periods of radiation shielding, preventing accidental retraction or misalignment. In an embodiment, the locking unit may also include a manual override feature, allowing an operator to disengage the lock and retract the panels when necessary. The locking unit is crucial in maintaining the structural integrity of the first shielding assembly 104 during use.
In an embodiment, the second shielding assembly 106 is arranged longitudinally with respect to the first shielding assembly 104, such that the second panels extend perpendicularly to the first panels. The longitudinal arrangement allows the second shielding assembly 106 to provide radiation shielding in a different direction, offering full two-dimensional coverage. The second panels, extending along the second axis, complement the first panels' coverage, creating a comprehensive shielding system that can adapt to different radiation exposure zones. In an embodiment, the second shielding assembly 106 may be adjustable, allowing the second panels to extend or retract depending on the operational requirements. The perpendicular arrangement of the first and second panels ensures that shielding coverage can be achieved across multiple planes, providing protection from radiation originating from various angles.
In an embodiment, the control unit 108 is coupled to a sensor array positioned on the moving platform 102, said sensor array configured to detect radiation intensity levels and automatically adjust the extension of the first panels and second panels based on real-time exposure data. The sensor array may consist of radiation detectors that continuously monitor the radiation levels in the surrounding area and transmit the data to the control unit 108. Based on the detected levels, the control unit 108 adjusts the position of the first and second panels to ensure optimal shielding coverage. The automatic adjustment of the panels based on real-time exposure data enhances the system's responsiveness to changing radiation conditions. In an embodiment, the control unit 108 may also be programmed with preset thresholds, wherein the panels are automatically extended or retracted when specific radiation levels are reached. This automation reduces the need for manual intervention and improves the overall efficiency of the radiation shielding system 100.
In an embodiment, the first shielding assembly 104 and the second shielding assembly 106 further comprise vibration-dampening layers positioned between the overlapping panels. Said vibration-dampening layers are designed to minimize mechanical stress and wear during the repeated extension and retraction of the panels. The vibration-dampening layers may be composed of elastomeric materials, such as rubber or silicone, which absorb the impact forces generated during panel movement. The reduction of mechanical stress prolongs the operational lifespan of the panels, ensuring that the radiation shielding system 100 remains functional over extended periods of use. In an embodiment, the vibration-dampening layers also reduce noise generated during panel movement, contributing to quieter operation. The presence of vibration-dampening layers improves the durability of the first and second shielding assemblies during repeated cycles of extension and retraction.
In an embodiment, the second panels of the second shielding assembly 106 further comprise a quick-release unit configured to allow individual panels to be easily detached and replaced. The quick-release unit may include a latching mechanism that enables the rapid disengagement of the second panels without requiring the full disassembly of the second shielding assembly 106. In an embodiment, the quick-release unit may be mechanical, utilizing a lever or latch that can be easily operated by hand to release the panels from the assembly. The ability to remove and replace individual panels provides significant advantages in terms of maintenance, as damaged or worn panels can be quickly replaced, minimizing system downtime. The quick-release unit ensures that the second shielding assembly 106 can be maintained efficiently, without compromising the integrity of the entire system during maintenance procedures.
In an embodiment, the moving platform 102 further comprises a rotational joint that allows the first shielding assembly 104 and the second shielding assembly 106 to rotate relative to the base surface. The rotational joint may be positioned at the base of the moving platform 102, enabling the entire radiation shielding system 100 to pivot in response to changes in the position of the radiation source. The rotational capability of the moving platform 102 allows the shielding assemblies to adjust their orientation without the need for repositioning the entire platform. In an embodiment, the rotational joint may be controlled manually or automatically via the control unit 108, allowing for precise directional adjustments. The inclusion of a rotational joint provides flexibility in adapting the shielding system to various operational environments, ensuring that radiation coverage can be optimized regardless of the direction of the radiation source.
In an embodiment, the control unit 108 further comprises a manual override unit, allowing an operator to manually control the extension of the first panels and the second panels. The manual override unit may be an interface, such as a control panel or a set of switches, that enables the operator to bypass automatic functions and adjust the position of the panels according to specific operational requirements. The manual control provides additional flexibility, allowing the operator to make real-time adjustments based on situational needs, such as unexpected changes in radiation levels or exposure areas. In an embodiment, the manual override unit may also include safety features, such as indicators or alarms, to alert the operator when the system is in manual mode. The presence of a manual override unit ensures that the radiation shielding system 100 can be operated with full control, enhancing its adaptability in various operational scenarios.
The machine learning-controlled radiation shielding mechanism (100) with interlocking movable shields enables customizable size adjustments for optimized radiation protection. The system utilizes machine learning algorithms integrated within a control unit (108) to dynamically manage the extension and positioning of overlapping first panels (104) and second panels (106) along perpendicular axes. These panels form interlocking shields, allowing the system to adapt to real-time environmental conditions and radiation levels. By analyzing data, the machine learning algorithms adjust the size and configuration of the shielding coverage, ensuring precise protection while minimizing unnecessary exposure. This approach facilitates intelligent customization of radiation shielding, making the system particularly useful in environments requiring adaptable and scalable shielding solutions, such as medical facilities, research laboratories, and industrial applications.
FIG. 2 illustrates sequential diagram of a radiation shielding system (100), in accordance with the embodiments of the pressent disclosure.The figure illustrates a radiation shielding system (100) comprising a moving platform (102), which traverses along a designated axis. Attached to the platform is a first shielding assembly (104) that includes a series of overlapping panels extending along a first axis. A second shielding assembly (106) is coupled to one end of the first shielding assembly, with its overlapping panels extending along a second axis, perpendicular to the first. The control unit (108) is operatively associated with the moving platform (102), the first shielding assembly (104), and the second shielding assembly (106). The control unit is responsible for managing the movement of the platform and the extension of the panels along their respective axes. Through the control unit, the system provides adjustable radiation shielding by extending or retracting the panels of the first and second assemblies to cover varying exposure areas as required. This setup enables multidirectional radiation protection based on real-time exposure needs and system adjustments.
In an embodiment, the moving platform 102 is configured to traverse along a designated axis, enabling repositioning of the attached shielding assemblies to accommodate dynamic changes in radiation exposure zones. The traversal capability along the designated axis allows the system to adapt to different operational environments, where radiation may originate from varying locations or angles. The movement of said platform facilitates consistent and adjustable coverage as the radiation source shifts, ensuring the necessary protection is provided without manual repositioning of each shielding element. The mobility of the moving platform 102 along the axis, whether linear or otherwise, improves the adaptability of the system by enabling real-time adjustments to the shielding configuration. This movement may be achieved through mechanical actuators, tracks, or other drive mechanisms integrated into the platform, ensuring smooth and controlled traversal. Such a feature is particularly advantageous in environments where radiation exposure areas change frequently, reducing the need for constant manual adjustment and ensuring continuous, uninterrupted protection.
In an embodiment, the first shielding assembly 104, comprising a plurality of overlapping first panels, is attached to at least one end of the moving platform 102. Said panels extend along a first axis and are constructed to provide radiation protection over a specific area. The second shielding assembly 106 is coupled to one end of the first shielding assembly 104 and comprises a plurality of overlapping second panels extending along a second axis perpendicular to the first. The perpendicular arrangement of the first and second panels facilitates multidirectional coverage, creating a comprehensive shielding system capable of protecting against radiation from multiple angles. The intersecting configuration of the panels along their respective axes prevents any gaps in coverage, as the panels overlap both horizontally and vertically. The continuous overlap provided by this configuration eliminates weak points in the system where radiation might otherwise penetrate, ensuring a robust and consistent shielding barrier is maintained, even as the panels extend or retract along their axes.
In an embodiment, the first shielding assembly 104 incorporates a locking unit designed to secure the extended position of the first panels during operation. This locking unit prevents unintended retraction or misalignment of the panels once extended, maintaining consistent radiation protection over the designated area. The locking unit may engage automatically when the panels reach their fully extended position, utilizing mechanical latches, pins, or similar components to hold the panels securely in place. The ability to lock the panels in their extended position is particularly beneficial in high-radiation environments where any reduction in coverage could lead to harmful exposure. The locking unit also contributes to the stability of the first shielding assembly 104 during movement or vibrations that may occur in the operational environment. In an embodiment, the locking unit may include a manual release mechanism, allowing for controlled retraction when necessary, without compromising the system's overall functionality.
In an embodiment, the second shielding assembly 106 is arranged longitudinally with respect to the first shielding assembly 104, such that the second panels extend perpendicularly to the first panels. This arrangement allows the second shielding assembly 106 to provide comprehensive two-dimensional coverage, offering protection in both the horizontal and vertical planes. The ability of the second panels to extend perpendicularly to the first panels enables the system to shield against radiation from various directions, adapting to different exposure areas based on operational needs. This perpendicular extension also enhances the flexibility of the system, allowing the coverage to be adjusted according to the specific size and shape of the area requiring protection. The longitudinal arrangement between the two assemblies ensures that there is no overlap of coverage responsibilities between the first and second panels, optimizing the system's ability to provide multidirectional shielding without redundancy or gaps.
In an embodiment, the control unit 108 is operatively associated with a sensor array positioned on the moving platform 102, allowing the system to detect radiation intensity levels in real time. The sensor array may include radiation detectors distributed across the moving platform, enabling accurate monitoring of radiation exposure in the surrounding area. Based on the data from the sensor array, the control unit 108 adjusts the extension of both the first and second panels automatically, optimizing shielding coverage based on the detected radiation levels. This automatic adjustment mechanism minimizes the need for manual intervention, allowing the system to respond dynamically to changes in radiation exposure. The ability to adjust the panels in real time ensures that the radiation shielding system 100 provides continuous protection without requiring constant operator input. In an embodiment, the control unit 108 may also include predefined thresholds that trigger the automatic extension or retraction of the panels based on specific radiation levels detected by the sensor array.
In an embodiment, the first shielding assembly 104 and the second shielding assembly 106 include vibration-dampening layers positioned between the overlapping panels. The vibration-dampening layers are designed to absorb and minimize mechanical stress during the repeated extension and retraction of the panels, which can occur frequently in dynamic operational environments. The vibration-dampening layers, constructed from materials such as rubber or elastomers, serve to reduce wear on the panels and the mechanical components responsible for moving them. By absorbing the impact forces generated during movement, the vibration-dampening layers prevent damage to the panels and extend the overall operational lifespan of both the first and second shielding assemblies. In an embodiment, the vibration-dampening layers also contribute to quieter operation by reducing the noise produced during the movement of the panels, which is advantageous in settings where noise reduction is important.
In an embodiment, the second panels of the second shielding assembly 106 feature a quick-release unit, allowing individual panels to be easily detached and replaced without requiring the full disassembly of the shielding system. The quick-release unit may include latches, levers, or other mechanical components that facilitate the rapid removal of panels, enabling efficient maintenance and reducing system downtime. This design allows operators to quickly replace damaged or worn panels while maintaining the integrity of the rest of the shielding assembly. The quick-release mechanism improves the serviceability of the radiation shielding system 100, ensuring that maintenance procedures can be performed with minimal disruption to system operation. In an embodiment, the quick-release unit is designed to provide secure attachment when the panels are in place, preventing accidental detachment during normal operation.
In an embodiment, the moving platform 102 further includes a rotational joint that allows the first shielding assembly 104 and the second shielding assembly 106 to rotate relative to the base surface. The rotational joint provides flexibility in adjusting the orientation of the shielding assemblies, allowing the system to adapt to changes in the position or direction of the radiation source. The rotational capability enables the radiation shielding system 100 to pivot around its axis, providing more versatile coverage without the need for repositioning the entire platform. In an embodiment, the rotational joint may be controlled manually or through the control unit 108, offering precise adjustments to the direction of the panels. The inclusion of a rotational joint enhances the system's ability to provide radiation protection in complex operational environments where radiation exposure can originate from multiple, shifting directions.
In an embodiment, the control unit 108 further comprises a manual override unit that allows an operator to manually control the extension of the first and second panels. The manual override provides an additional level of flexibility, enabling the operator to bypass the automatic adjustment functions and directly adjust the panel positions based on specific operational requirements. This feature is particularly useful in situations where the operator needs to respond quickly to changes in the radiation environment or where precise control over the shielding coverage is necessary. The manual override unit may include physical controls such as buttons, switches, or a joystick, providing an intuitive interface for manual operation. In an embodiment, the manual override unit also includes indicators to notify the operator of the system's current mode and panel positions, ensuring safe and effective manual control over the shielding system.
Further, while operations are depicted in a particular order, this should not be understood as requiring that such operations be performed in the particular order shown or in sequential order, or that all illustrated operations be performed, to achieve desirable results. In certain circumstances, multitasking and parallel processing may be advantageous. Likewise, while several specific implementation details are contained in the above discussions, these should not be construed as limitations on the scope of the subject matter described herein, but rather as descriptions of features that may be specific to particular embodiments. Certain features that are described in this specification in the context of separate embodiments can also be implemented in combination in a single embodiment. Conversely, various features that are described in the context of a single embodiment can also be implemented in multiple embodiments separately or in any suitable sub-combination. Moreover, although features may be described above as acting in certain combinations and even initially claimed as such, one or more features from a claimed combination can in some cases be excised from the combination, and the claimed combination may be directed to a sub-combination or variation of a sub-combination.
The term "memory," as used herein relates to a volatile or persistent medium, such as a magnetic disk, or optical disk, in which a computer can store data or software for any duration. Optionally, the memory is non-volatile mass storage












I/We Claims


1. A radiation shielding system (100) comprising:
a moving platform (102) configured to traverse along a designated axis;
a first shielding assembly (104) attached to at least one end of said moving platform (102), said first shielding assembly (104) comprising a plurality of overlapping first panels configured to extend along a first axis;
a second shielding assembly (106) coupled to at least one end of said first shielding assembly (104), said second shielding assembly (106) comprising a plurality of overlapping second panels extending along a second axis perpendicular to said first axis; and
a control unit (108) operatively associated with said moving platform (102), said first shielding assembly (104), and said second shielding assembly (106), said control unit (108) configured to selectively adjust the extension of said first panels and said second panels along their respective axes to provide adjustable radiation shielding coverage.
2. The radiation shielding system (100) of claim 1, wherein said moving platform (102) is configured to move longitudinally with respect to a base surface, such movement allowing said first shielding assembly (104) and said second shielding assembly (106) to be repositioned based on varying radiation exposure zones.
3. The radiation shielding system (100) of claim 1, wherein said first panels of said first shielding assembly (104) are intersecting said second panels of said second shielding assembly (106), such intersection facilitates continuous overlapping to prevent gaps in shielding coverage along both the first axis and the second axis.
4. The radiation shielding system (100) of claim 1, wherein said first shielding assembly (104) further comprises a locking unit, said locking unit configured to secure the extended position of said first panels to maintain consistent shielding coverage during operation.
5. The radiation shielding system (100) of claim 1, wherein said second shielding assembly (106) is arranged longitudinally with respect to said first shielding assembly (104), such arrangement enabling said second panels to extend perpendicularly to said first panels, allowing full two-dimensional coverage based on adjustable radiation exposure areas.
6. The radiation shielding system (100) of claim 1, wherein said control unit (108) is coupled to a sensor array positioned on said moving platform (102), said sensor array configured to detect radiation intensity levels and adjust the extension of said first panels and second panels automatically, optimizing shielding based on real-time exposure data.
7. The radiation shielding system (100) of claim 1, wherein said first shielding assembly (104) and said second shielding assembly (106) further comprise vibration-dampening layers positioned between said overlapping panels, said vibration-dampening layers configured to minimize mechanical stress and extend the operational lifespan of the panels during repeated extension and retraction.
8. The radiation shielding system (100) of claim 1, wherein said second panels of said second shielding assembly (106) further comprise a quick-release unit configured to allow individual panels to be easily detached and replaced, said quick-release unit enabling efficient maintenance without requiring full disassembly of the shielding system.
9. The radiation shielding system (100) of claim 1, wherein said moving platform (102) further comprises a rotational joint allowing said first shielding assembly (104) and said second shielding assembly (106) to rotate relative to the base surface, enabling flexible directional adjustments of the shielding system in response to changes in the radiation source position.
10. The radiation shielding system (100) of claim 1, wherein said control unit (108) further comprises a manual override unit allowing an operator to manually control the extension of said first panels and said second panels, providing additional flexibility in adjusting the shielding coverage based on specific operational requirements.



The present invention discloses a machine learning-controlled radiation shielding system with interlocking movable shields for size customization. The system comprises a moving platform that traverses along a designated axis and supports a first shielding assembly made up of overlapping panels that extend along a first axis. A second shielding assembly, attached to the first, includes overlapping panels extending along a second axis perpendicular to the first. A control unit equipped with machine learning algorithms dynamically manages the position and extension of the panels along their respective axes. This configuration allows for customizable radiation shielding coverage through intelligent interlocking of the panels, adapting the size and positioning based on real-time environmental data and protection requirements.
, Claims:I/We Claims


1. A radiation shielding system (100) comprising:
a moving platform (102) configured to traverse along a designated axis;
a first shielding assembly (104) attached to at least one end of said moving platform (102), said first shielding assembly (104) comprising a plurality of overlapping first panels configured to extend along a first axis;
a second shielding assembly (106) coupled to at least one end of said first shielding assembly (104), said second shielding assembly (106) comprising a plurality of overlapping second panels extending along a second axis perpendicular to said first axis; and
a control unit (108) operatively associated with said moving platform (102), said first shielding assembly (104), and said second shielding assembly (106), said control unit (108) configured to selectively adjust the extension of said first panels and said second panels along their respective axes to provide adjustable radiation shielding coverage.
2. The radiation shielding system (100) of claim 1, wherein said moving platform (102) is configured to move longitudinally with respect to a base surface, such movement allowing said first shielding assembly (104) and said second shielding assembly (106) to be repositioned based on varying radiation exposure zones.
3. The radiation shielding system (100) of claim 1, wherein said first panels of said first shielding assembly (104) are intersecting said second panels of said second shielding assembly (106), such intersection facilitates continuous overlapping to prevent gaps in shielding coverage along both the first axis and the second axis.
4. The radiation shielding system (100) of claim 1, wherein said first shielding assembly (104) further comprises a locking unit, said locking unit configured to secure the extended position of said first panels to maintain consistent shielding coverage during operation.
5. The radiation shielding system (100) of claim 1, wherein said second shielding assembly (106) is arranged longitudinally with respect to said first shielding assembly (104), such arrangement enabling said second panels to extend perpendicularly to said first panels, allowing full two-dimensional coverage based on adjustable radiation exposure areas.
6. The radiation shielding system (100) of claim 1, wherein said control unit (108) is coupled to a sensor array positioned on said moving platform (102), said sensor array configured to detect radiation intensity levels and adjust the extension of said first panels and second panels automatically, optimizing shielding based on real-time exposure data.
7. The radiation shielding system (100) of claim 1, wherein said first shielding assembly (104) and said second shielding assembly (106) further comprise vibration-dampening layers positioned between said overlapping panels, said vibration-dampening layers configured to minimize mechanical stress and extend the operational lifespan of the panels during repeated extension and retraction.
8. The radiation shielding system (100) of claim 1, wherein said second panels of said second shielding assembly (106) further comprise a quick-release unit configured to allow individual panels to be easily detached and replaced, said quick-release unit enabling efficient maintenance without requiring full disassembly of the shielding system.
9. The radiation shielding system (100) of claim 1, wherein said moving platform (102) further comprises a rotational joint allowing said first shielding assembly (104) and said second shielding assembly (106) to rotate relative to the base surface, enabling flexible directional adjustments of the shielding system in response to changes in the radiation source position.
10. The radiation shielding system (100) of claim 1, wherein said control unit (108) further comprises a manual override unit allowing an operator to manually control the extension of said first panels and said second panels, providing additional flexibility in adjusting the shielding coverage based on specific operational requirements.

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