MULTI-AXIS SOIL COMPACTION APPARATUS FOR GROUND STABILIZATION

Abstract

The present disclosure provides a computer-controlled traffic barricade handling apparatus with a fore-aft sliding and cage-based structure. The system comprises a roller platform extending in a transverse direction with a first and second end. A first cage assembly is positioned at the first end, comprising a proximal and distal wall that form a cavity. A second cage assembly, located at the second end, includes a vertically moveable floor and a pivotable swing arm configured to slide along a fore-and-aft axis. A modular attachment unit is provided on both cage assemblies, enabling quick swapping based on operational requirements. The apparatus is computer-controlled for efficient deployment, retrieval, and customization of traffic barricades during various traffic management operations.

Specification

Description:Field of the Invention


The present disclosure relates to traffic management systems. Particularly, the present disclosure relates to a computer-controlled traffic barricade handling apparatus with a fore-aft sliding mechanism and cage-based structure for modular barricade deployment and retrieval.
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 barricade deployment systems are known in industrial and public safety applications. Such systems are commonly used to manage crowd control, traffic diversion, and security perimeters. A significant aspect of such systems is the ability to be rapidly deployed and retracted in different environments. Traditional barricade systems typically involve manual handling, which requires significant manpower and time, especially when large areas are involved. Such systems generally include barriers mounted on stationary platforms or carts that are manually pushed or pulled to the required location. However, the deployment process is frequently inefficient due to the size and weight of the barriers, and the labor-intensive process associated with adjusting the system to meet specific operational needs.
Furthermore, some known barricade systems utilize mechanical platforms to facilitate easier movement of barriers. However, such platforms often lack flexibility in terms of structural adaptability. For example, many existing barricade systems feature fixed cage assemblies, which means that each deployment system is specific to one type of operational requirement, limiting the versatility of the system. In situations where different types of barriers need to be deployed based on the task at hand, existing systems require multiple separate setups or the manual disassembly and reassembly of different components. This process not only increases the time taken for deployment but also raises the likelihood of operational delays and potential mishandling during urgent operations.
Moreover, existing barricade deployment systems frequently lack modularity, which would allow the system to be adapted quickly to varying terrain or environmental conditions. In some systems, the barricades are attached to platforms that are either too rigid or too complex to handle efficiently. Known systems also often feature cumbersome mechanisms for attaching or detaching different parts of the system, thereby slowing down the deployment or retraction process. In such systems, the attachment units are either permanently affixed or require the use of specialised tools, leading to longer preparation times and operational challenges when rapid deployment is required.
Additionally, many state-of-the-art barricade systems fail to provide an efficient way to handle the physical stresses caused by repeated use over various terrains. Existing cage assemblies and platform mechanisms are prone to wear and tear, especially in environments where the system is subject to constant movement, vibration, or exposure to adverse conditions. This leads to frequent maintenance requirements and compromises the overall reliability of such systems in long-term applications.
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 barricade deployment.
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 disclosure relates to traffic management systems. Particularly, the present disclosure relates to a computer-controlled traffic barricade handling apparatus with a fore-aft sliding mechanism and cage-based structure for modular barricade deployment and retrieval.
An objective of the present disclosure is to provide a modular barricade deployment system that enables quick swapping of cage assemblies and facilitates efficient deployment and retrieval of barricades. The system of the present disclosure aims to provide an interchangeable configuration for operational flexibility, enabling adaptable deployment solutions.
In an aspect, the present disclosure provides a modular barricade deployment system comprising a roller platform extending transversely, with a first cage assembly coupled to one end of the roller platform and a second cage assembly positioned at the other end. The first cage assembly includes a proximal wall and a distal wall forming a cavity, while the second cage assembly has a vertically movable floor and a swing arm configured to move along a fore-and-aft axis. A modular attachment unit disposed on the first and second cage assemblies enables quick swapping of the cage assemblies based on operational requirements.
Further, the system allows enhanced barricade deployment by incorporating a swing arm in the second cage assembly, which can rotate about a vertical axis. The inclusion of a locking unit within the first cage assembly prevents accidental detachment during deployment and retrieval. Additionally, the intersection of the moveable floor with the swing arm ensures coordinated loading and unloading operations.
Moreover, the system provides operational versatility with a transverse rail system in the roller platform to guide the movement of cage assemblies during attachment or detachment. Quick-release pins along the longitudinal axis of both cage assemblies enable rapid removal and replacement. Additionally, a pressure-sensing unit in the second cage assembly adjusts the floor's vertical position based on barricade weight, preventing overloading.

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 modular barricade deployment system (100), in accordance with the embodiments of the present disclosure.
FIG. 2 illustrates sequential diagram of a modular barricade deployment system (100), in accordance with the embodiments of the present 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 disclosure relates to traffic management systems. Particularly, the present disclosure relates to a computer-controlled traffic barricade handling apparatus with a fore-aft sliding mechanism and cage-based structure for modular barricade deployment and retrieval.
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 "roller platform" refers to a platform that extends transversely and is structured to support other components of the system. The roller platform has a first end and a second end, each connected to specific assemblies, enabling the deployment and retrieval of barricades. Said roller platform may include structural elements or rails that allow movement or attachment of components, supporting both the first cage assembly and the second cage assembly. Additionally, such a platform is designed to bear loads encountered during barricade deployment while maintaining stability and facilitating ease of movement across the transverse axis. The roller platform further supports operational adjustments required during deployment, enabling an adaptable base for the interchangeable cage assemblies.
As used herein, the term "first cage assembly" refers to an assembly positioned at the first end of the roller platform. The first cage assembly comprises a proximal wall and a distal wall that are spaced apart to form a first cavity. Such a cavity serves as a designated area for receiving or storing barricades during deployment and retrieval operations. The first cage assembly is coupled to the roller platform and may include additional attachment mechanisms to ensure secure placement during operational use. The spacing of the walls provides structural support for barricades, ensuring stability during loading and unloading, while maintaining separation between the walls to facilitate efficient storage and handling.
As used herein, the term "second cage assembly" refers to an assembly positioned at the second end of the roller platform. The second cage assembly comprises a vertically moveable floor and a pivotable swing arm. The moveable floor enables the adjustment of the floor's height based on barricade placement and retrieval needs. The swing arm is designed to pivot along a fore-and-aft axis, allowing the assembly to deploy barricades efficiently in multiple directions. Said second cage assembly provides flexibility in barricade handling by adjusting the floor's position in coordination with the swing arm's movement, enhancing operational versatility. The swing arm's movement along the fore-and-aft axis further assists in controlled barricade placement and retrieval.
As used herein, the term "modular attachment unit" refers to an attachment mechanism disposed on the first and second cage assemblies. The modular attachment unit is designed to enable the quick swapping of the first cage assembly and the second cage assembly based on operational requirements. Said modular attachment unit may include quick-release pins or similar mechanisms that facilitate the removal and replacement of the cage assemblies. The attachment unit ensures secure and efficient coupling of the cage assemblies to the roller platform, while providing flexibility for the system to adapt to various operational scenarios. The modular attachment unit plays a central role in maintaining the adaptability of the system.
FIG. 1 illustrates a modular barricade deployment system (100), in accordance with the embodiments of the present disclosure. In an embodiment, a modular barricade deployment system (100) includes a roller platform (102) that extends in a transverse direction. The roller platform (102) features a first end and a second end, which serve as connection points for other elements of the system. The roller platform (102) is structurally configured to support and stabilize the components of the system during both deployment and retrieval operations. Said roller platform (102) may include a rail system or similar guiding structures that allow for the controlled movement and attachment of other elements. The roller platform (102) extends across a predetermined length, ensuring sufficient space for mounting various cage assemblies and associated components. The platform may be designed to maintain balance and stability when the barricades are being transported or deployed. Additionally, the roller platform (102) may support various loads during operation, preventing tipping or instability when handling barricades. The first end and the second end serve as connection points for the first cage assembly (104) and the second cage assembly (106), respectively, providing a base for the modular configuration of the system.
In an embodiment, the first cage assembly (104) is coupled to the first end of the roller platform (102). The first cage assembly (104) includes a proximal wall and a distal wall, with said walls spaced apart to form a first cavity. The cavity is structured to accommodate the storage or transportation of barricades during deployment or retrieval operations. The first cage assembly (104) may further incorporate additional structural features to secure barricades in place and prevent shifting during movement. The spacing between the proximal and distal walls is determined based on the size of the barricades, providing enough room for placement while also ensuring stability. The first cage assembly (104) is coupled securely to the roller platform (102) through attachment mechanisms that maintain the position of the assembly during operational use. Such attachment ensures that the first cage assembly (104) remains securely connected to the roller platform (102) while supporting the barricades stored within the first cavity.
In an embodiment, the second cage assembly (106) is positioned at the second end of the roller platform (102). The second cage assembly (106) includes a vertically moveable floor and a pivotable swing arm. The moveable floor provides height adjustment for handling barricades of different sizes, enabling efficient loading and unloading during deployment and retrieval. The swing arm is configured to move along a fore-and-aft axis, which allows for controlled positioning of the barricades during deployment. The swing arm's movement along this axis assists in placing barricades in a forward or aft direction, depending on the operational requirement. The vertically moveable floor is structured to move in coordination with the swing arm's pivoting action, ensuring that barricades can be raised or lowered to match the swing arm's movement. Said second cage assembly (106) allows for flexibility in handling barricades and provides enhanced control during deployment operations. The placement of the second cage assembly (106) at the second end of the roller platform (102) ensures balanced distribution of the system components.
In an embodiment, the modular attachment unit (108) is disposed on the first cage assembly (104) and the second cage assembly (106). The modular attachment unit (108) enables quick swapping of the first cage assembly (104) and the second cage assembly (106) depending on operational requirements. Such modular attachment unit (108) may include quick-release mechanisms, such as pins or clamps, that facilitate rapid detachment and reattachment of the cage assemblies. The attachment unit is structured to provide secure engagement of the cage assemblies with the roller platform (102) while also allowing easy removal when required. The modular nature of the attachment unit (108) allows for flexibility in changing the configuration of the system based on the specific deployment scenario. Said attachment unit (108) can be positioned longitudinally along the length of the roller platform (102), ensuring proper alignment of the cage assemblies during attachment or detachment. The modular attachment unit (108) provides operational flexibility and adaptability to different barricade deployment needs.
In an embodiment, the swing arm of the second cage assembly (106) is positioned longitudinally with respect to the roller platform (102) to facilitate efficient barricade deployment. The swing arm is capable of rotating about a vertical axis, allowing for the precise placement of barricades in both forward and aft directions. The longitudinal positioning of the swing arm enhances its range of motion, ensuring that barricades can be deployed accurately to meet varying operational demands. Such rotational capability around the vertical axis allows the swing arm to pivot freely while maintaining alignment with the roller platform (102). This configuration ensures that the barricades can be deployed in a controlled manner, without causing misalignment or operational delays. The longitudinal arrangement of the swing arm in relation to the roller platform (102) allows the second cage assembly (106) to engage with barricades efficiently, providing the flexibility needed for smooth barricade handling. Furthermore, the swing arm's rotational ability enhances the versatility of the second cage assembly (106) during deployment and retrieval processes.
In an embodiment, the first cage assembly (104) comprises a locking unit integrated with the modular attachment unit (108). The locking unit is designed to secure the first cage assembly (104) in place during deployment and retrieval operations, preventing accidental detachment. The integration of the locking unit with the modular attachment unit (108) ensures that the first cage assembly (104) remains securely coupled to the roller platform (102) throughout the operation. The locking unit may include mechanical fasteners such as latches, clamps, or similar securing mechanisms that engage with the modular attachment unit (108) to maintain the assembly's position. The locking unit is specifically structured to provide stability during both the transportation and deployment of barricades. Said locking unit plays a critical role in safeguarding the operational integrity of the first cage assembly (104), ensuring that it does not detach unexpectedly when exposed to dynamic forces during barricade handling. The secure engagement provided by the locking unit enhances the overall safety and reliability of the modular barricade deployment system (100).
In an embodiment, the vertically moveable floor of the second cage assembly (106) intersects the swing arm to allow for coordinated movement. The intersection of the moveable floor and the swing arm enables the floor to raise or lower in synchronization with the fore-and-aft movement of the swing arm. This design facilitates efficient loading and unloading of barricades by adjusting the floor's vertical position based on the movement of the swing arm. The moveable floor may be connected to a lifting mechanism that enables smooth vertical adjustments while maintaining alignment with the swing arm's movement along the fore-and-aft axis. Such interaction between the moveable floor and the swing arm allows the second cage assembly (106) to handle barricades of varying sizes or configurations. The coordination between the two components ensures that barricades are loaded or unloaded with minimal manual intervention, reducing operational complexity. The integration of the moveable floor with the swing arm supports the efficient deployment and retrieval of barricades.
In an embodiment, the roller platform (102) comprises a transverse rail system designed to guide the movement of the first cage assembly (104) and the second cage assembly (106) during modular attachment or detachment. The rail system is integrated along the transverse axis of the roller platform (102) and provides a smooth path for the cage assemblies to move during installation or removal. The transverse rail system may include tracks, rollers, or similar guiding mechanisms that facilitate the movement of the cage assemblies while maintaining proper alignment with the roller platform (102). The rail system enables controlled sliding or rolling of the cage assemblies, ensuring that they can be easily attached or detached as required. Said transverse rail system allows the cage assemblies to be maneuvered efficiently without the need for complex tools or manual adjustments. By providing a guided path for the cage assemblies, the transverse rail system enhances the modularity of the barricade deployment system (100) and allows for quick reconfiguration of the components.
In an embodiment, the modular attachment unit (108) further comprises quick-release pins positioned longitudinally along the first cage assembly (104) and the second cage assembly (106). The quick-release pins allow for the rapid removal and replacement of the cage assemblies, providing operational flexibility. The quick-release pins are strategically positioned to engage with specific attachment points on the modular attachment unit (108), ensuring that the cage assemblies can be securely locked in place during operation. The pins may be operated manually or mechanically, allowing for fast disengagement when the cage assemblies need to be swapped or repositioned. The quick-release pins ensure that the process of removing or attaching the cage assemblies is efficient, minimizing downtime and enabling the system to adapt to different deployment requirements. Said quick-release pins are critical in maintaining the modular nature of the barricade deployment system (100) and support the overall ease of assembly and disassembly of the cage units.
In an embodiment, the swing arm of the second cage assembly (106) is equipped with an adjustable pivot axis that allows the swing arm to rotate in multiple directions. The adjustable pivot axis provides enhanced flexibility by enabling the swing arm to pivot not only along the fore-and-aft axis but also in additional planes. The ability to adjust the pivot axis allows for greater control over the placement and movement of barricades during deployment. The adjustable pivot may include mechanical or hydraulic components that allow the pivot point to be shifted or locked in different orientations. Such adjustability ensures that the second cage assembly (106) can handle barricades in a variety of operational scenarios, accommodating different angles or positions required for barricade deployment. The inclusion of the adjustable pivot axis in the swing arm enhances the overall functionality of the system by allowing for customized movement of the swing arm based on the specific needs of the deployment process.
In an embodiment, the vertically moveable floor of the second cage assembly (106) further comprises a pressure-sensing unit. The pressure-sensing unit is designed to detect the weight of barricades during retrieval and automatically adjust the floor's vertical position to prevent overloading. The pressure-sensing unit is integrated into the moveable floor and continuously monitors the weight applied to the floor during barricade handling operations. When the detected weight exceeds a predetermined threshold, the pressure-sensing unit signals the lifting mechanism to adjust the height of the floor accordingly. Said adjustment prevents excessive weight from being placed on the moveable floor, protecting the second cage assembly (106) from potential damage and ensuring that the system remains stable during operation. The pressure-sensing unit enhances the safety of the barricade deployment system (100) by ensuring that the load on the floor is balanced and controlled.
In an embodiment, the roller platform (102) further comprises an anti-vibration unit positioned along the transverse axis. The anti-vibration unit is designed to minimize vibrations transmitted to the first cage assembly (104) and the second cage assembly (106) during barricade deployment and retrieval. The anti-vibration unit may consist of dampening materials, shock absorbers, or similar components that absorb and reduce the impact of vibrations caused by movement or external forces. The anti-vibration unit is strategically positioned to provide maximum stabilization to the roller platform (102) and the attached cage assemblies. By reducing the transmission of vibrations, the anti-vibration unit helps to maintain the structural integrity of the system and prevents misalignment or detachment of the cage assemblies during operation. Said anti-vibration unit is essential in ensuring smooth and stable operation during barricade handling processes, particularly in environments with rough terrain or uneven surfaces.
In an embodiment, the swing arm of the second cage assembly (106) is equipped with an energy recovery unit. The energy recovery unit is designed to capture energy generated by the rotational motion of the swing arm and store such energy for use in subsequent operations. The energy recovery unit may include a mechanical or electrical system that converts the kinetic energy of the swing arm's movement into storable energy. This stored energy can be used to power other components of the system or assist in the movement of the swing arm during future barricade deployment. The energy recovery unit is integrated into the swing arm and operates in tandem with the pivoting action of the arm, allowing for efficient energy capture without interfering with the swing arm's primary function. Said energy recovery unit provides an additional energy source for the system, enhancing its overall operational efficiency.
The present disclosure relates to a modular barricade deployment system (100) that functions as a computer-controlled traffic barricade handling apparatus with a fore-aft sliding mechanism and cage-based structure, enabling efficient and customizable traffic management. The system includes a roller platform (102) extending in a transverse direction, having a first end and a second end. A first cage assembly (104) is coupled to the first end of the roller platform (102) and consists of a proximal wall and a distal wall spaced apart to form a first cavity for storing or transporting barricades. At the second end of the roller platform (102), a second cage assembly (106) is positioned, featuring a vertically moveable floor and a pivotable swing arm. The swing arm is designed to move along a fore-and-aft axis, enabling precise positioning and handling of the barricades. The vertically adjustable floor further facilitates efficient loading and unloading processes. The system is equipped with a modular attachment unit (108) located on both the first cage assembly (104) and the second cage assembly (106). This modular attachment unit (108) enables quick swapping or reconfiguration of the cage assemblies to adapt to different operational requirements, allowing for versatile use of the apparatus in various traffic control scenarios. The computer-controlled mechanism manages the movement of the roller platform (102), the sliding motion of the swing arm, and the vertical adjustment of the floor, providing seamless operation and enhanced control during barricade deployment and retrieval. The integration of these features allows for precise handling, rapid deployment, and retrieval of traffic barricades, making the system suitable for dynamic traffic management situations where adaptability and quick responses are crucial.
FIG. 2 illustrates sequential diagram of a modular barricade deployment system (100), in accordance with the embodiments of the present disclosure. The sequential diagram illustrates the steps involved in the operation of a modular barricade deployment system (100). First, the user deploys the roller platform (102) extending in a transverse direction. The roller platform connects to the first cage assembly (104) at its first end, where the proximal and distal walls of the cage form a cavity for barricade storage. Next, the second cage assembly (106) is connected to the second end of the roller platform (102), consisting of a vertically moveable floor and a pivotable swing arm. The swing arm is configured to move along a fore-and-aft axis to assist with barricade positioning. After both cages are connected, the user attaches the modular attachment unit (108) to both cage assemblies. The modular attachment unit (108) enables the quick swapping of the first cage assembly (104) and the second cage assembly (106) based on operational needs. The system allows for flexible deployment and retrieval of barricades using the modular components.
In an embodiment, the roller platform (102) extends in a transverse direction, providing a stable base for the modular barricade deployment system (100). The roller platform (102) offers structural support by connecting to the first cage assembly (104) at one end and the second cage assembly (106) at the opposite end. The transverse extension allows the roller platform (102) to distribute weight evenly across both ends, contributing to stability during the movement and deployment of barricades. The first end and the second end of the roller platform (102) serve as anchor points for the respective cage assemblies, ensuring that both assemblies remain aligned during operation. The design of the roller platform (102) allows it to accommodate varying barricade sizes while maintaining balance. By providing a solid transverse structure, the roller platform (102) enhances the system's ability to handle large loads while enabling smooth operation during both barricade deployment and retrieval processes, minimizing the risk of system failure or misalignment.
In an embodiment, the swing arm of the second cage assembly (106) is positioned longitudinally in relation to the roller platform (102), allowing for flexible and precise barricade deployment. The swing arm's longitudinal alignment enables it to rotate about a vertical axis, providing the ability to position barricades in both forward and aft directions. Such rotational capability allows for greater control during barricade deployment, ensuring that barricades are placed exactly where needed. The vertical axis rotation ensures smooth transitions between forward and aft deployments without requiring the operator to manually adjust the system. This longitudinal alignment not only expands the range of motion for the swing arm but also improves the system's adaptability to various operational environments. By allowing the swing arm to move longitudinally and rotate vertically, the system gains a broader range of barricade placement options, making it suitable for a wide range of deployment scenarios.
In an embodiment, the first cage assembly (104) incorporates a locking unit integrated with the modular attachment unit (108), providing secure attachment during deployment and retrieval operations. The locking unit plays a critical role in preventing accidental detachment of the first cage assembly (104) when the system is subjected to dynamic forces, such as movement or external pressure. The locking unit works in conjunction with the modular attachment unit (108), engaging in a manner that ensures the first cage assembly (104) remains firmly in place once attached. This integration provides enhanced stability by ensuring that the first cage assembly (104) does not shift or become detached unexpectedly during operation. The locking unit may consist of mechanical latches or other securing devices that engage automatically when the first cage assembly (104) is attached to the roller platform (102). This configuration ensures that the first cage assembly (104) can be securely locked and unlocked when necessary, offering both safety and operational reliability.
In an embodiment, the vertically moveable floor of the second cage assembly (106) intersects with the swing arm, enabling coordinated movement during barricade loading and unloading. The interaction between the moveable floor and the swing arm allows the floor to adjust vertically as the swing arm moves along the fore-and-aft axis. This coordination between components provides greater control during the loading and unloading process, as the vertically adjustable floor can be raised or lowered to align with the barricade position. Such movement allows for seamless transfer of barricades from the second cage assembly (106) to the deployment location, reducing the need for manual intervention. The intersection of the moveable floor and the swing arm enhances the system's ability to handle barricades of various sizes, improving the overall efficiency of the deployment process. This interaction ensures that barricades are managed safely and effectively throughout the operation, reducing the risk of mishandling or damage.
In an embodiment, the roller platform (102) features a transverse rail system designed to guide the movement of the first cage assembly (104) and the second cage assembly (106) during attachment and detachment processes. The transverse rail system provides a smooth and controlled path for both cage assemblies, ensuring that they remain aligned with the roller platform (102) during modular changes. The rail system may include tracks or similar guiding mechanisms that facilitate easy sliding or movement of the cage assemblies, reducing the effort required to attach or detach them. The transverse orientation of the rail system ensures that the movement of the cage assemblies is linear and stable, preventing misalignment or jamming during modular operations. This rail system enables rapid reconfiguration of the system by allowing the cage assemblies to be quickly removed or replaced as needed. The transverse rail system enhances the overall flexibility of the modular barricade deployment system (100) by supporting the seamless integration and removal of the cage assemblies.
In an embodiment, the modular attachment unit (108) includes quick-release pins positioned longitudinally along both the first cage assembly (104) and the second cage assembly (106). These quick-release pins allow for rapid removal and replacement of the cage assemblies, improving the system's operational flexibility. The pins are strategically positioned along the length of the attachment unit to engage securely with the roller platform (102), locking the cage assemblies in place during use. When disengaged, the quick-release pins allow the cage assemblies to be quickly detached from the roller platform (102) without requiring additional tools or complex procedures. This rapid-release mechanism reduces downtime when reconfiguring the system for different operational needs. The longitudinal placement of the pins ensures that the cage assemblies can be removed or attached efficiently, streamlining the process of switching between different assemblies. The quick-release pins enhance the modular nature of the system by providing a reliable and fast mechanism for assembly changes.
In an embodiment, the swing arm of the second cage assembly (106) features an adjustable pivot axis, allowing the swing arm to rotate in multiple directions. The adjustable pivot axis provides the system with enhanced versatility, enabling the swing arm to move beyond a fixed plane. This capability allows the operator to adjust the swing arm's angle of rotation based on the specific deployment requirements, offering greater control over the positioning of the barricades. The pivot axis can be adjusted to accommodate various angles, ensuring that barricades can be deployed in any required direction. The ability to rotate in multiple directions makes the second cage assembly (106) adaptable to different environments and operational conditions. The adjustable pivot axis enhances the swing arm's functionality by allowing for more precise control during the barricade deployment process, ensuring that barricades are placed accurately in both forward and lateral directions, as necessary.
In an embodiment, the vertically moveable floor of the second cage assembly (106) further incorporates a pressure-sensing unit, which detects the weight of barricades during retrieval operations. The pressure-sensing unit continuously monitors the weight placed on the moveable floor and automatically adjusts the floor's vertical position to prevent overloading. This automatic adjustment ensures that the moveable floor remains at an optimal height during barricade retrieval, reducing the risk of damage to the system or the barricades. The pressure-sensing unit may be configured to activate a lifting or lowering mechanism that adjusts the floor in response to the detected load. By preventing overloading, the pressure-sensing unit helps to maintain system stability and ensures the safe handling of barricades during retrieval. This feature enhances the safety and reliability of the system, providing continuous feedback on load conditions to avoid potential issues related to excessive weight.
In an embodiment, the roller platform (102) includes an anti-vibration unit positioned along the transverse axis to reduce vibrations transmitted to the first cage assembly (104) and the second cage assembly (106). The anti-vibration unit helps to stabilize the system during barricade deployment and retrieval, minimizing the impact of external forces or terrain irregularities. The anti-vibration unit may consist of dampening materials or shock-absorbing components that absorb and mitigate the vibrations generated during system movement. By reducing the transmission of vibrations, the anti-vibration unit ensures that both cage assemblies remain stable and aligned with the roller platform (102) during operation. This reduction in vibration helps to preserve the integrity of the barricade deployment process, preventing misalignment or loosening of the components. The anti-vibration unit enhances the system's operational stability, particularly when used in challenging environments where external forces may affect performance.
In an embodiment, the swing arm of the second cage assembly (106) is equipped with an energy recovery unit that captures the energy generated by the rotational motion of the swing arm. The energy recovery unit stores this captured energy for use in subsequent operations, allowing the system to operate more efficiently. The energy recovery unit may convert the kinetic energy from the swing arm's movement into storable electrical or mechanical energy, which can then be used to assist in future barricade deployments or other system functions. This captured energy helps to reduce the system's reliance on












I/We Claims


1. A modular barricade deployment system (100) comprising:
a roller platform (102) extending in a transverse direction, said roller platform (102) having a first end and a second end;
a first cage assembly (104) coupled to said first end of said roller platform (102), said first cage assembly (104) comprising a proximal wall and a distal wall spaced apart, forming a first cavity;
a second cage assembly (106) positioned at said second end of said roller platform (102), said second cage assembly (106) comprising a vertically moveable floor and a pivotable swing arm, said swing arm configured to move along a fore-and-aft axis; and
a modular attachment unit (108) disposed on said first cage assembly (104) and said second cage assembly (106), said modular attachment unit (108) configured to enable quick swapping of said first cage assembly (104) and said second cage assembly (106) based on operational requirements.
2. The modular barricade deployment system (100) of claim 1, wherein said swing arm of said second cage assembly (106) is positioned longitudinally with respect to said roller platform (102), said swing arm configured to rotate about a vertical axis to allow precise deployment of barricades in both forward and aft directions.
3. The modular barricade deployment system (100) of claim 1, wherein said first cage assembly (104) comprises a locking unit integrated with said modular attachment unit (108), said locking unit configured to secure the first cage assembly (104) in place during deployment and retrieval operations, preventing accidental detachment.
4. The modular barricade deployment system (100) of claim 1, wherein said vertically moveable floor of said second cage assembly (106) is intersecting said swing arm, such intersection allowing the floor to raise or lower in coordination with the fore-and-aft movement of said swing arm, enabling efficient barricade loading and unloading.
5. The modular barricade deployment system (100) of claim 1, wherein said roller platform (102) comprises a transverse rail system, said rail system configured to guide the movement of said first cage assembly (104) and said second cage assembly (106) during modular attachment or detachment.
6. The modular barricade deployment system (100) of claim 1, wherein said modular attachment unit (108) further comprises quick-release pins positioned longitudinally along said first cage assembly (104) and said second cage assembly (106), said quick-release pins enabling rapid removal and replacement of the cage assemblies for operational flexibility.
7. The modular barricade deployment system (100) of claim 1, wherein said swing arm of said second cage assembly (106) is configured with an adjustable pivot axis, said pivot axis allowing the swing arm to rotate in multiple directions.
8. The modular barricade deployment system (100) of claim 1, wherein said vertically moveable floor of said second cage assembly (106) further comprises a pressure-sensing unit, said pressure-sensing unit configured to detect the weight of barricades during retrieval, automatically adjusting the floor's vertical position to prevent overloading.
9. The modular barricade deployment system (100) of claim 1, wherein said roller platform (102) further comprises an anti-vibration unit, said anti-vibration unit positioned along the transverse axis to minimize vibrations transmitted to the first and second cage assemblies during barricade deployment and retrieval.
10. The modular barricade deployment system (100) of claim 1, wherein said swing arm of said second cage assembly (106) is equipped with an energy recovery unit, said energy recovery unit configured to capture energy generated by the rotational motion of said swing arm and store said energy for use in subsequent operations.




The present disclosure provides a computer-controlled traffic barricade handling apparatus with a fore-aft sliding and cage-based structure. The system comprises a roller platform extending in a transverse direction with a first and second end. A first cage assembly is positioned at the first end, comprising a proximal and distal wall that form a cavity. A second cage assembly, located at the second end, includes a vertically moveable floor and a pivotable swing arm configured to slide along a fore-and-aft axis. A modular attachment unit is provided on both cage assemblies, enabling quick swapping based on operational requirements. The apparatus is computer-controlled for efficient deployment, retrieval, and customization of traffic barricades during various traffic management operations.
, Claims:I/We Claims


1. A modular barricade deployment system (100) comprising:
a roller platform (102) extending in a transverse direction, said roller platform (102) having a first end and a second end;
a first cage assembly (104) coupled to said first end of said roller platform (102), said first cage assembly (104) comprising a proximal wall and a distal wall spaced apart, forming a first cavity;
a second cage assembly (106) positioned at said second end of said roller platform (102), said second cage assembly (106) comprising a vertically moveable floor and a pivotable swing arm, said swing arm configured to move along a fore-and-aft axis; and
a modular attachment unit (108) disposed on said first cage assembly (104) and said second cage assembly (106), said modular attachment unit (108) configured to enable quick swapping of said first cage assembly (104) and said second cage assembly (106) based on operational requirements.
2. The modular barricade deployment system (100) of claim 1, wherein said swing arm of said second cage assembly (106) is positioned longitudinally with respect to said roller platform (102), said swing arm configured to rotate about a vertical axis to allow precise deployment of barricades in both forward and aft directions.
3. The modular barricade deployment system (100) of claim 1, wherein said first cage assembly (104) comprises a locking unit integrated with said modular attachment unit (108), said locking unit configured to secure the first cage assembly (104) in place during deployment and retrieval operations, preventing accidental detachment.
4. The modular barricade deployment system (100) of claim 1, wherein said vertically moveable floor of said second cage assembly (106) is intersecting said swing arm, such intersection allowing the floor to raise or lower in coordination with the fore-and-aft movement of said swing arm, enabling efficient barricade loading and unloading.
5. The modular barricade deployment system (100) of claim 1, wherein said roller platform (102) comprises a transverse rail system, said rail system configured to guide the movement of said first cage assembly (104) and said second cage assembly (106) during modular attachment or detachment.
6. The modular barricade deployment system (100) of claim 1, wherein said modular attachment unit (108) further comprises quick-release pins positioned longitudinally along said first cage assembly (104) and said second cage assembly (106), said quick-release pins enabling rapid removal and replacement of the cage assemblies for operational flexibility.
7. The modular barricade deployment system (100) of claim 1, wherein said swing arm of said second cage assembly (106) is configured with an adjustable pivot axis, said pivot axis allowing the swing arm to rotate in multiple directions.
8. The modular barricade deployment system (100) of claim 1, wherein said vertically moveable floor of said second cage assembly (106) further comprises a pressure-sensing unit, said pressure-sensing unit configured to detect the weight of barricades during retrieval, automatically adjusting the floor's vertical position to prevent overloading.
9. The modular barricade deployment system (100) of claim 1, wherein said roller platform (102) further comprises an anti-vibration unit, said anti-vibration unit positioned along the transverse axis to minimize vibrations transmitted to the first and second cage assemblies during barricade deployment and retrieval.
10. The modular barricade deployment system (100) of claim 1, wherein said swing arm of said second cage assembly (106) is equipped with an energy recovery unit, said energy recovery unit configured to capture energy generated by the rotational motion of said swing arm and store said energy for use in subsequent operations.

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