SYSTEM FOR PRECISION CONCRETE POURING IN COMPLEX STRUCTURE

Abstract

Disclosed is a rotational dispensing apparatus for controlled concrete application, comprising a support frame including a series of hinging units positioned along adjustable axes, with said hinging units arranged in movable relation with a set of dispensing heads. A plurality of dispensing heads are in rotational configuration with said hinging units, enabling multi-angle pouring across complex geometries. A tiltable arm is attached to each dispensing head and extends in alignment with said support frame for concrete distribution across intricate structural spaces. Such configuration enables efficient and controlled concrete coverage, facilitating application within confined or complex structural areas.

Specification

Description:Field of the Invention


The present disclosure generally relates to construction machinery. Further, the present disclosure particularly relates to a rotational dispensing apparatus for controlled concrete application.
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.
Concrete application in construction projects requires equipment that enables even and controlled distribution over diverse structural surfaces. Conventional techniques for concrete application involve manual pouring and spreading tools such as trowels and spades or mechanised pumping systems for concrete distribution. Traditional manual methods generally involve human labour, which limits precision and often leads to inconsistent coverage over the intended areas. Moreover, such techniques tend to be labor-intensive and time-consuming, requiring extensive operator effort, especially when dealing with intricate structural elements, including pillars, recesses, and other geometric variations. Furthermore, such systems do not support multi-directional concrete application, which is essential for comprehensive coverage within confined spaces or complex structural geometries.
Furthermore, the use of concrete pumping systems with fixed nozzles or sprayers is common to cover larger areas. Such systems utilise pressurised pumping units that propel concrete through pipes and hoses for distribution across surfaces. However, these systems lack flexibility due to rigid hose attachments and limited control over application angles. Fixed nozzle orientations restrict concrete distribution within complex architectural features, necessitating manual intervention to achieve full coverage. Consequently, such conventional methods may lead to inefficiencies and inconsistencies in coverage, particularly within confined or irregular spaces. Such systems are also prone to clogging, especially when handling thicker mixtures or aggregates, necessitating frequent maintenance and resulting in increased downtime during construction.
In addition to manual and fixed pumping systems, automated or semi-automated systems are occasionally used to support concrete application within certain structural environments. Such systems often include robotic arms with fixed articulation that allow limited movement along predefined axes. Although such systems offer a certain level of automation, said robotic systems are frequently constrained by their limited articulation and range of motion, which restricts their capacity to cover intricate spaces effectively. The inability of such robotic arms to adapt to varying geometries or orientations limits their utility for complex concrete application tasks. Moreover, such systems are generally expensive and may require specialised installation, making them less viable for many construction projects with varied spatial requirements.
Moreover, advanced concrete application methods, which may use rotating nozzles, have been explored to achieve improved flexibility. Such methods often employ a stationary support structure that rotates a nozzle or head for application at multiple angles. However, such systems generally fail to accommodate dynamic adjustments during operation and often require manual intervention to reorient the nozzle for different angles. Furthermore, such static rotation systems do not provide adequate control over multi-angle coverage, particularly across three-dimensional surfaces or complex, angled geometries. The fixed support structures employed in such systems may also create limitations regarding operational flexibility and may not be suitable for diverse construction scenarios where concrete coverage is required over variable geometries.
Furthermore, current systems employing jointed or flexible connections may enable some degree of movement for concrete distribution, yet such systems are generally limited by weak joint integrity and reduced durability, especially when subject to the operational stresses of concrete distribution tasks. The complexity of multi-axis movement often places strain on hinges and joints, resulting in wear over time and necessitating frequent replacement. Moreover, such jointed systems do not consistently allow for precise control over the flow direction, limiting coverage uniformity within challenging or irregular structural formations. In addition, such jointed systems are generally restricted by their limited flexibility and do not provide adequate support for achieving comprehensive coverage over all structural angles or geometries.
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 concrete application across intricate structural surfaces and geometries.
Summary
The following presents a simplified summary of various aspects of this disclosure in order to provide a basic understanding of such aspects. This summary is not an extensive overview of all contemplated aspects, and is intended to neither identify key or critical elements nor delineate the scope of such aspects. Its purpose is to present some concepts of this disclosure in a simplified form as a prelude to the more detailed description that is presented later.
The following paragraphs provide additional support for the claims of the subject application.
An objective of the present disclosure is to enable controlled and targeted concrete application across complex geometries, including confined and intricate structural spaces. The apparatus of the present disclosure aims to achieve effective concrete coverage, enhancing the uniformity and precision of concrete layering in varied architectural configurations.
In an aspect, the present disclosure provides a rotational dispensing apparatus for controlled concrete application. The apparatus includes a support frame with a series of hinging units positioned along adjustable axes in movable relation to multiple dispensing heads. The dispensing heads are in rotational configuration with the hinging units, facilitating multi-angle pouring across complex geometries. Each dispensing head includes a tiltable arm aligned with the support frame, enabling concrete distribution across intricate structural spaces.
Further, each dispensing head includes an adjustable nozzle to achieve directional control of concrete discharge. Each hinging unit is positioned at an offset angle to enhance reach and flexibility, and each tiltable arm aligns in parallel orientation with the support frame to follow the movement of the hinging units. Additionally, overlapping alignment among dispensing heads provides synchronized rotational adjustments, facilitating cohesive application within tightly spaced areas. The support frame includes a coupling mechanism for maintaining distance consistency between hinging units and dispensing heads, thereby enabling controlled flow and angle consistency during concrete deposition.
Moreover, each tiltable arm is in torsional alignment with dispensing heads, enhancing resilience against vibrations during operation. Each hinging unit includes a positional lock to secure dispensing heads at fixed angles, facilitating consistent layering across specific structural areas. Each dispensing head also includes a pressure-regulating valve aligned with the tiltable arm to adjust concrete flow, ensuring uniform layering and material control. Additionally, shock-absorbing brackets associated with the support frame and hinging units reduce vibrations, maintaining concrete placement accuracy under varying structural stresses.

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 rotational dispensing apparatus (100) for controlled concrete application, in accordance with the embodiments of the present disclosure.
FIG. 2 illustrates a flow diagram of the rotational dispensing apparatus 100 for concrete application, in accordance with the embodiments of the present disclosure.
Detailed Description
In the following detailed description of the invention, reference is made to the accompanying drawings that form a part hereof, and in which is shown, by way of illustration, specific embodiments in which the invention may be practiced. In the drawings, like numerals describe substantially similar components throughout the several views. These embodiments are described in sufficient detail to claim those skilled in the art to practice the invention. Other embodiments may be utilized and structural, logical, and electrical changes may be made without departing from the scope of the present invention. The following detailed description is, therefore, not to be taken in a limiting sense, and the scope of the present invention is defined only by the appended claims and equivalents thereof.
The use of the terms "a" and "an" and "the" and "at least one" and similar referents in the context of describing the invention (especially in the context of the following claims) are to be construed to cover both the singular and the plural, unless otherwise indicated herein or clearly contradicted by context. The use of the term "at least one" followed by a list of one or more items (for example, "at least one of A and B") is to be construed to mean one item selected from the listed items (A or B) or any combination of two or more of the listed items (A and B), unless otherwise indicated herein or clearly contradicted by context. The terms "comprising," "having," "including," and "containing" are to be construed as open-ended terms (i.e., meaning "including, but not limited to,") unless otherwise noted. Recitation of ranges of values herein are merely intended to serve as a shorthand method of referring individually to each separate value falling within the range, unless otherwise indicated herein, and each separate value is incorporated into the specification as if it were individually recited herein. All methods described herein can be performed in any suitable order unless otherwise indicated herein or otherwise clearly contradicted by context. The use of any and all examples, or exemplary language (e.g., "such as") provided herein, is intended merely to better illuminate the invention and does not pose a limitation on the scope of the invention unless otherwise claimed. No language in the specification should be construed as indicating any non-claimed element as essential to the practice of the invention.
Pursuant to the "Detailed Description" section herein, whenever an element is explicitly associated with a specific numeral for the first time, such association shall be deemed consistent and applicable throughout the entirety of the "Detailed Description" section, unless otherwise expressly stated or contradicted by the context.
As used herein, the term "rotational dispensing apparatus" is used to refer to any apparatus employed for controlled application of concrete in construction settings, enabling adaptable positioning and distribution across complex structural geometries. Such an apparatus may include various components structured to operate cohesively, including mechanisms for rotation, articulation, and support to achieve multi-angle concrete pouring. The term also encompasses any assembly of parts facilitating alignment and adjustment of dispensing heads for concrete distribution within diverse spatial configurations. Additionally, the "rotational dispensing apparatus" as used herein includes assemblies adaptable to various construction structures, such as those requiring concrete application in confined spaces, intricate frameworks, and angled surfaces. Further, the apparatus allows rotation and positioning control over multiple dispensing heads, enhancing effective application in scenarios requiring uniform distribution of concrete. Such apparatus encompasses various configurations applicable to construction sites and architectural projects, with adaptability to different structural complexities.
As used herein, the term "support frame" is used to refer to a structural frame included within any concrete dispensing apparatus for controlled application, providing foundational support for various operational units. Said frame typically incorporates multiple hinging units positioned along adjustable axes, with each hinging unit configured to hold one or more dispensing heads in movable relation. The term also encompasses any structural base that enables secure and adjustable attachment of dispensing mechanisms, allowing for stable operation across a range of angles. Additionally, the support frame as used herein includes configurations designed to accommodate adjustable rotation and alignment of dispensing components in response to spatial requirements within construction settings. Further, such a frame may incorporate brackets, coupling mechanisms, or other structural components facilitating controlled alignment, vibration reduction, and positional integrity. Such support frames encompass various forms suited for use in concrete application within diverse architectural environments requiring stability and multi-dimensional adaptability.
As used herein, the term "hinging units" is used to refer to any assembly of joint structures or pivot mechanisms included within a dispensing apparatus for enabling rotational and adjustable movement of attached components, such as dispensing heads. Said hinging units may be positioned along axes that allow for flexible orientation, thereby enhancing adaptability for concrete distribution across complex geometries. The term also encompasses arrangements that facilitate the controlled, multi-axis movement of attached dispensing heads, allowing directional adjustments for uniform application in confined or challenging architectural spaces. Additionally, the hinging units as used herein include structures that support rotational configuration with the dispensing heads, contributing to a broader range of motion and spatial coverage during concrete application. Further, each hinging unit may include positional locking or other stabilisation features to maintain angle and alignment during operation, encompassing varied designs suited for concrete dispensing in diverse construction applications.
As used herein, the term "dispensing heads" is used to refer to any distribution units included within a dispensing apparatus, each configured for the controlled release of concrete during application. Said dispensing heads typically operate in rotational configuration with associated hinging units, enabling multi-angle positioning to achieve concrete coverage across complex structures. The term also includes any nozzle or discharge component aligned with a dispensing head, permitting flow adjustments for targeted distribution across surfaces with irregular geometries. Additionally, the dispensing heads as used herein include configurations that allow alignment with tiltable arms, ensuring efficient concrete placement within confined or angular spaces. Such dispensing heads encompass various discharge and flow control mechanisms designed for adaptability across construction applications, allowing directional discharge adjustments as required for uniform layering and regulated concrete flow on site.
As used herein, the term "tiltable arm" is used to refer to any elongated structure included within a dispensing apparatus, with each arm attached to a dispensing head to facilitate adjustable alignment with a support frame. Such an arm extends in parallel or aligned orientation with the support frame, allowing for adaptive movement and angle adjustments during concrete application. The term also encompasses any arm structure enabling controlled positioning of dispensing heads along varied structural surfaces, enhancing distribution within intricate or confined spaces. Additionally, the tiltable arm as used herein includes configurations designed to follow the rotational movements of associated hinging units, contributing to cohesive multi-angle coverage. Such arms may also include structural or torsional features that provide resilience against operational stresses, enabling stable concrete distribution under variable conditions encountered in diverse construction scenarios.
FIG. 1 illustrates a rotational dispensing apparatus (100) for controlled concrete application, in accordance with the embodiments of the present disclosure. In an embodiment, the rotational dispensing apparatus 100 includes a support frame 102 structured to serve as a foundational support for various operational units, such as hinging units 104 and dispensing heads 106. The support frame 102 includes a series of hinging units 104, which are positioned along adjustable axes that allow for precise alignment within various spatial configurations. The adjustable axes are structured to enable controlled positioning of each hinging unit 104, allowing for customized movement as required for optimal concrete application in diverse construction settings. The arrangement of the hinging units 104 in movable relation with the dispensing heads 106 enables effective adaptability to a wide range of angles. Each hinging unit 104 supports a designated dispensing head 106, maintaining stable but adjustable connections to facilitate multi-directional movement. The adjustable placement of each hinging unit 104 allows for controlled rotation and positioning of the attached dispensing heads 106 to accommodate variable concrete pouring angles. The support frame 102 may include stabilizing elements, such as brackets or reinforcements, that reduce vibrations during operation, ensuring stable concrete application under differing structural stresses. The support frame 102, therefore, includes adaptable positioning features and ensures secure attachment points for the dispensing heads 106 while allowing multi-angle movement and application in complex geometries.
In an embodiment, the dispensing apparatus 100 includes a plurality of dispensing heads 106 in rotational configuration with the hinging units 104. Each dispensing head 106 is attached to a respective hinging unit 104, allowing for rotation and adjustable positioning relative to the concrete pouring axis. The rotational configuration of the dispensing heads 106 with the hinging units 104 enables application across complex structural surfaces, including angled or multi-dimensional areas where traditional pouring may be limited. Each dispensing head 106 may further include a nozzle or discharge mechanism aligned to enable controlled release of concrete. The rotational capacity of each dispensing head 106 permits distribution in multiple directions, making the apparatus adaptable to confined or intricate structural layouts. By adjusting the angle of rotation, the dispensing heads 106 enable targeted concrete application without requiring extensive repositioning of the apparatus 100. The rotational configuration of each dispensing head 106 allows the apparatus 100 to be effectively utilized in structural layouts requiring consistent coverage in multiple directions. Each dispensing head 106, in cooperation with the hinging units 104, facilitates a wide range of operational orientations, enhancing the adaptability of the dispensing apparatus 100 for diverse architectural and construction applications.
In an embodiment, the rotational dispensing apparatus 100 includes a tiltable arm 108 attached to each dispensing head 106, with each arm extending in alignment with the support frame 102. The tiltable arm 108 serves as an extension mechanism that allows for controlled movement of the dispensing head 106 along specific angles, which may be adjusted as required during operation. The alignment of each tiltable arm 108 with the support frame 102 maintains consistent positioning relative to the overall apparatus, supporting smooth concrete distribution in constrained or intricate spaces. Each tiltable arm 108 can pivot along specific angles in coordination with the hinging units 104, thereby allowing for dynamic adjustment of the dispensing head 106 during multi-angle pouring. The tiltable arm 108 provides additional flexibility, enabling concrete application to areas that may be difficult to reach using traditional systems. Each tiltable arm 108 may also incorporate structural elements that reduce vibrations transmitted to the dispensing heads 106, maintaining stable concrete distribution despite movement or adjustments.
In an embodiment, each dispensing head 106 of the apparatus 100 includes an adjustable nozzle aligned in rotational association with said dispensing head 106, allowing for directional control of concrete discharge during operation. The adjustable nozzle is structured to permit controlled positioning of the concrete flow, enabling targeted application across non-linear geometries, which may include complex or angled surfaces. Each nozzle may be rotated incrementally, allowing the operator to adjust the angle of discharge to suit varying spatial configurations without needing to reposition the entire apparatus 100. The adjustable nozzle is constructed to withstand operational stresses associated with concrete flow, ensuring that the alignment remains stable even under substantial pressure variations. Further, the nozzle may include internal components, such as a flow-directing element, to maintain a consistent discharge pattern, enhancing distribution accuracy. Such adjustable nozzles are beneficial for scenarios where concrete needs to be applied in confined or challenging areas, as the rotational association with the dispensing head 106 provides a broader range of directional options for coverage. Additionally, the nozzle's adjustability enables flexibility in flow rate and angle, allowing the concrete discharge to be finely tuned according to specific project requirements.
In an embodiment, each hinging unit 104 of the apparatus 100 is positioned at an offset angle relative to the support frame 102, facilitating the adaptable rotation of each dispensing head 106 for enhanced reach and flexibility during concrete application. The offset positioning enables each hinging unit 104 to rotate along an axis that allows the attached dispensing head 106 to be angled according to specific application needs, making it suitable for pouring within complex architectural layouts. Such offset angles allow the hinging units 104 to be rotated and locked in diverse orientations, making it easier to access hard-to-reach or non-linear structures within a construction environment. Each offset angle may vary based on the requirements of the structure, allowing for customizable orientation of each dispensing head 106 to achieve desired concrete coverage. The offset positioning contributes to achieving broader concrete distribution across different structural levels without needing frequent repositioning of the support frame 102. Additionally, the offset alignment provides each hinging unit 104 with an adaptable range of motion that increases overall flexibility in application, particularly when dealing with irregular architectural surfaces that require coverage from multiple angles.
In an embodiment, each tiltable arm 108 of the apparatus 100 aligns in a parallel orientation with the support frame 102, enabling each tiltable arm 108 to follow the movement of the corresponding hinging unit 104. The parallel orientation facilitates synchronized motion between the tiltable arm 108 and the support frame 102, ensuring that each dispensing head 106 maintains consistent positioning relative to the entire apparatus 100 during multi-angle pouring. Such alignment allows the tiltable arm 108 to be flexibly moved along with the hinging units 104, promoting efficient concrete distribution in varied spatial orientations. This configuration minimizes deviations in angle during application, maintaining a steady flow of concrete even in challenging structural geometries. The parallel alignment also simplifies the control of the tiltable arm 108, making it easier to adjust each dispensing head 106 along diverse angles without disturbing the positioning of the support frame 102. Each tiltable arm 108 may include stabilizing features to reduce potential movement irregularities caused by operational vibrations, enhancing control over concrete distribution within confined or intricate areas.
In an embodiment, each dispensing head 106 of the apparatus 100 is configured in an overlapping alignment with adjacent hinging units 104, enabling synchronized rotational adjustments among the dispensing heads 106. Such overlapping alignment allows multiple dispensing heads 106 to operate in a coordinated manner, ensuring cohesive concrete application across tightly spaced areas. The overlapping configuration enables each dispensing head 106 to maintain spatial proximity with neighboring units, enhancing uniform distribution across the application area. Each dispensing head 106 may rotate in harmony with adjacent dispensing heads, preventing gaps in concrete coverage and achieving a continuous application. The synchronized rotation facilitated by the overlapping alignment is advantageous for structures requiring layered or adjacent concrete coverage, as each dispensing head 106 can be angled to align with the others. This overlapping configuration minimizes misalignment between adjacent dispensing heads 106, reducing the likelihood of uneven layering or material waste during application in confined spaces.
In an embodiment, the support frame 102 of the apparatus 100 includes a coupling mechanism arranged with each hinging unit 104, enabling controlled distance and movement between each hinging unit 104 and dispensing head 106. Such coupling mechanism maintains a fixed yet adaptable spacing between each hinging unit 104 and the dispensing head 106 it supports, ensuring that the relative positioning remains consistent for accurate concrete application. The coupling mechanism may include brackets, pivots, or similar components to stabilize the movement of each hinging unit 104 and dispensing head 106. Such regulated spacing facilitates controlled flow and consistent angle during concrete application, as each dispensing head 106 maintains a predictable alignment relative to its hinging unit 104. This coupling arrangement is particularly useful in applications requiring multi-angle coverage, as it maintains the positional stability of each dispensing head 106 even when operating under variable angles.
In an embodiment, each tiltable arm 108 of the apparatus 100 is in torsional alignment with the dispensing heads 106, providing resilience to vibrations during concrete discharge. The torsional alignment enables each tiltable arm 108 to absorb operational vibrations that may otherwise affect the consistency of concrete flow, enhancing stability during application. Such alignment minimizes deviations that may occur due to movement-induced vibrations, making it suitable for concrete application within challenging structural configurations. Each tiltable arm 108 may incorporate shock-absorbing materials or reinforced joints to further reduce vibrations, promoting a stable connection with each dispensing head 106. This torsional alignment is advantageous for maintaining alignment accuracy in high-vibration environments, allowing each tiltable arm 108 to deliver consistent concrete flow across varied application surfaces without significant disruption.
In an embodiment, each hinging unit 104 of the apparatus 100 includes a positional lock feature to secure each dispensing head 106 at fixed angles when required. The positional lock feature allows each hinging unit 104 to be stabilized at selected angles, facilitating consistent concrete layering across sections that require controlled coverage. Such positional locking may include mechanisms such as clamps, pins, or friction-based locks to prevent unintended movement of each dispensing head 106 once positioned. The locking feature is beneficial in applications where specific angles must be maintained for extended periods, as it reduces movement while concrete is being applied. Each positional lock may be adjusted or released as needed, allowing flexibility in repositioning the dispensing heads 106 between locked and adjustable modes.
In an embodiment, each dispensing head 106 of the apparatus 100 includes a pressure-regulating valve aligned with each tiltable arm 108, allowing concrete flow to be adjusted according to structural demands. The pressure-regulating valve allows each dispensing head 106 to control the flow rate and maintain uniform layering in areas where precise concrete application is necessary. Such alignment of the valve enables real-time flow adjustments, reducing the potential for excess material application or uneven layering. Each pressure-regulating valve is constructed to maintain consistent discharge even when flow demands change, ensuring that the concrete distribution remains steady across varied application surfaces.
In an embodiment, the support frame 102 of the apparatus 100 includes shock-absorbing brackets in conjunction with the hinging units 104, reducing operational vibrations transmitted through each tiltable arm 108 to each dispensing head 106. The shock-absorbing brackets reduce movement irregularities that may affect the alignment and positioning of each dispensing head 106, maintaining accuracy in concrete placement even under operational stresses. Each shock-absorbing bracket may be constructed with resilient materials designed to absorb vibrations, minimizing disturbances in concrete distribution across the application area. The shock-absorbing brackets provide stability for each hinging unit 104 and ensure that each dispensing head 106 remains securely aligned during multi-angle pouring.
FIG. 2 illustrates a flow diagram of the rotational dispensing apparatus 100 for concrete application, in accordance with the embodiments of the present disclosure. The rotational dispensing apparatus 100 for concrete application consists of a structured support frame 102, which houses a series of hinging units 104 positioned along adjustable axes. These hinging units 104 are in a movable relation with multiple dispensing heads 106, each aligned to enable multi-directional rotation. This rotational setup allows each dispensing head 106 to adapt to complex geometries, facilitating concrete distribution across various structural angles and surfaces. Attached to each dispensing head 106 is a tiltable arm 108, which extends in alignment with the support frame 102. This tiltable arm 108 enhances the precision of concrete distribution by maintaining a consistent alignment with the support frame, even during complex movements. Together, the support frame, hinging units, rotational dispensing heads, and tiltable arm achieve controlled concrete application, ensuring thorough coverage within intricate structural spaces, particularly beneficial in confined construction settings requiring adaptability and consistency in material layering.
In an embodiment, the support frame 102 of the rotational dispensing apparatus 100 includes a series of hinging units 104 positioned along adjustable axes, each arranged in movable relation with a set of dispensing heads 106. The support frame 102 provides a stable base for concrete application, with hinging units 104 allowing controlled adjustments. The adjustable axes enable each hinging unit 104 to pivot or rotate as needed, enhancing the flexibility of the dispensing heads 106 in reaching multiple angles. The movable relation between the hinging units 104 and dispensing heads 106 allows for multi-directional adjustments, which are particularly effective for concrete pouring across non-linear geometries and complex structures. By allowing each dispensing head 106 to be positioned as required, the apparatus 100 achieves a broader range of coverage without the need to move the entire frame. This configuration is suitable for intricate construction layouts, where traditional concrete application methods may struggle to provide uniform coverage. The support frame 102, together with hinging units 104, creates an adaptable structure for diverse architectural needs.
In an embodiment, each dispensing head 106 in the apparatus 100 includes an adjustable nozzle aligned in rotational association with said dispensing head 106. The adjustable nozzle allows for directional control of the concrete discharge, enabling the operator to adjust the flow angle for specific application needs. This flexibility is especially useful in non-linear geometries or complex architectural designs, where concrete must be applied at multiple angles for consistent coverage. The rotational association between the nozzle and dispensing head 106 provides freedom to direct the discharge path without repositioning the entire apparatus. This feature enables the nozzle to reach areas that may otherwise be challenging to access. Additionally, the ability to adjust the nozzle direction helps avoid excess spillage and promotes precise distribution, reducing material waste and enhancing the overall application quality.
In an embodiment, each hinging unit 104 in the apparatus 100 is positioned at an offset angle relative to the support frame 102, which facilitates adaptable rotation of each dispensing head 106. The offset angle allows each hinging unit 104 to rotate independently, extending the reach and adaptability of each dispensing head 106. This offset configuration enables better alignment with complex architectural layouts, where straight-line pouring may be insufficient. The ability to rotate each dispensing head 106 around an offset axis permits the apparatus to cover a wider area and reach hard-to-access sections. This feature allows the operator to pour concrete into intricate spaces, reducing the need for manual adjustments and re-positioning of the frame. The offset angle provides flexibility in targeting specific application points, making the apparatus 100 suitable for challenging construction environments.
In an embodiment, each tiltable arm 108 in the apparatus 100 aligns in a parallel orientation with the support frame 102, allowing each tiltable arm 108 to follow the movement of each hinging unit 104. This parallel alignment provides stability, as the movement of each tiltable arm 108 corresponds with the movement of the hinging unit 104, maintaining a consistent trajectory during concrete application. This configuration is beneficial for smooth, controlled application across varying angles, ensuring the dispensing heads 106 maintain their orientation relative to the structure. The parallel orientation minimizes deviations in concrete flow by keeping each tiltable arm 108 aligned with the overall movement of the apparatus. This alignment supports efficient operation in areas that require precision, especially when pouring concrete in confined or layered architectural spaces. The parallel alignment also facilitates the coordination of movement, reducing misalignment and ensuring consistent coverage.
In an embodiment, each dispensing head 106 in the apparatus 100 is configured in an overlapping alignment with adjacent hinging units 104, allowing synchronized rotational adjustments among said dispensing heads 106. The overlapping alignment enables coordinated movements, which are particularly useful in tightly spaced areas where cohesive application is necessary. By aligning each dispensing head 106 to overlap with adjacent units, the apparatus 100 achieves smooth, continuous coverage without gaps. This configuration allows the dispensing heads 106 to operate in unison, providing consistent concrete distribution across adjacent spaces. The overlapping alignment also enables a wider area to be covered simultaneously, minimizing the need for multiple adjustments. This feature is advantageous for applications requiring uniform layering, as each dispensing head 106 can work in harmony with adjacent heads to maintain even distribution.
In an embodiment, the support frame 102 in the apparatus 100 includes a coupling mechanism arranged with each hinging unit 104, maintaining controlled distance and movement between each hinging unit 104 and dispensing head 106. The coupling mechanism ensures that each dispensing head 106 remains aligned with its respective hinging unit 104, preserving a consistent distance and preventing unnecessary movement during operation. This controlled alignment allows for steady, predictable concrete flow, which is essential for accurate application. The coupling mechanism stabilizes the movement of each dispensing head 106, reducing misalignment and allowing for better control over the discharge angle. This configuration provides regulated flow and consistency in angle, which are necessary for achieving uniform coverage in complex architectural layouts. The controlled spacing between each hinging unit 104 and dispensing head 106 also reduces the risk of vibration-induced deviations, maintaining concrete application quality.
In an embodiment, each tiltable arm 108 in the apparatus 100 is in torsional alignment with each dispensing head 106, providing resilience to vibrations during concrete discharge. The torsional alignment minimizes the transmission of vibrations from the support frame 102 to the dispensing heads 106, stabilizing the flow of concrete and improving application accuracy. This alignment is particularly beneficial in challenging structural environments where vibrations could interfere with concrete placement. Each tiltable arm 108 absorbs and dampens vibrations, allowing each dispensing head 106 to remain steady during discharge. This torsional configuration supports reliable operation, even in high-vibration settings, ensuring that concrete placement remains accurate. The alignment reduces the risk of irregularities in concrete layering by maintaining consistent positioning.
In an embodiment, each hinging unit 104 in the apparatus 100 includes a positional lock feature that secures each dispensing head 106 at a fixed angle when required. The positional lock allows each dispensing head 106 to maintain a steady angle, which is essential for layered concrete application across specific sections of a structure. This feature is useful for ensuring that each dispensing head 106 remains in place when an exact angle is required for uniform coverage. The positional lock mechanism provides stability, allowing each dispensing head 106 to maintain a consistent angle throughout the application process. This is particularly advantageous for sections of the structure that demand precise layering, as the positional lock prevents unintended shifts or movement.
In an embodiment, each dispensing head 106 in the apparatus 100 includes a pressure-regulating valve aligned with each tiltable arm 108, allowing concrete flow to be adjusted based on structural demands. The pressure-regulating valve enables each dispensing head 106 to control the discharge rate, providing a consistent flow that matches the specific requirements of the application area. This alignment allows the valve to adjust the concrete output, ensuring that the material is distributed uniformly across various surfaces. The pressure-regulating valve minimizes excess material usage by controlling the flow rate, providing efficient application in areas that demand consistent layering. The ability to adjust pressure also reduces the potential for material waste, optimizing the concrete distribution process.
In an embodiment, the support frame 102 in the apparatus 100 includes shock-absorbing brackets in conjunction with each hinging unit 104, reducing operational vibrations transmitted through each tiltable arm 108 to each dispensing head 106. The shock-absorbing brackets help isolate each hinging unit 104 from vibrations that may be generated during operation, maintaining the accuracy of each dispensing head 106. By absorbing vibrations, the shock-absorbing brackets ensure that each dispensing head 106 remains stable during concrete application, preventing deviations in alignment. This stabili












I/We Claims


A rotational dispensing apparatus (100) for controlled concrete application, comprising:
a support frame (102) including a series of hinging units (104) positioned along adjustable axes, said hinging units (104) arranged in movable relation with a set of dispensing heads (106);
a plurality of dispensing heads (106) in rotational configuration with said hinging units (104), such configuration facilitating multi-angle pouring across complex geometries;
a tiltable arm (108) attached to each said dispensing head (106) and extending in alignment with said support frame (102) for precise concrete distribution, enhancing coverage within intricate structural spaces.
The apparatus (100) of claim 1, wherein each said dispensing head (106) includes an adjustable nozzle aligned in rotational association with such dispensing head (106), thereby enabling directional control of concrete discharge for achieving targeted distribution across non-linear geometries.
The apparatus (100) of claim 1, wherein each said hinging unit (104) is positioned at an offset angle relative to said support frame (102), such offset facilitating adaptable rotation of each dispensing head (106) for increased reach and flexibility in pouring within complex architectural layouts.
The apparatus (100) of claim 1, wherein each said tiltable arm (108) aligns in a parallel orientation with said support frame (102), said alignment allowing each tiltable arm (108) to follow movement with each said hinging unit (104).
The apparatus (100) of claim 1, wherein each said dispensing head (106) is configured in an overlapping alignment with adjacent hinging units (104), such overlap enabling synchronized rotational adjustments among said dispensing heads (106) for cohesive concrete application in tightly spaced areas.
The apparatus (100) of claim 1, wherein said support frame (102) includes a coupling mechanism arranged with said hinging units (104), such coupling maintaining controlled distance and movement between each hinging unit (104) and dispensing head (106), thus ensuring regulated flow and angle consistency for accurate concrete deposition.
The apparatus (100) of claim 1, wherein each said tiltable arm (108) is in torsional alignment with said dispensing heads (106), such torsional relationship providing resilience to vibrations during concrete discharge, thus enhancing stability and accuracy in pouring within challenging structural configurations.
The apparatus (100) of claim 1, wherein each said hinging unit (104) is equipped with a positional lock feature, such feature securing said dispensing heads (106) at fixed angles when desired, thereby facilitating consistent concrete layering across critical sections of the structure.
The apparatus (100) of claim 1, wherein each said dispensing head (106) includes a pressure-regulating valve in alignment with said tiltable arm (108), such valve adjusting concrete flow to match structural demands, ensuring uniform layering and reducing excess material application.
The apparatus (100) of claim 1, wherein each said support frame (102) includes shock-absorbing brackets in conjunction with said hinging units (104), such brackets reducing operational vibrations transmitted through said tiltable arm (108) to said dispensing heads (106), thereby maintaining concrete placement accuracy under varying structural stresses.




Disclosed is a rotational dispensing apparatus for controlled concrete application, comprising a support frame including a series of hinging units positioned along adjustable axes, with said hinging units arranged in movable relation with a set of dispensing heads. A plurality of dispensing heads are in rotational configuration with said hinging units, enabling multi-angle pouring across complex geometries. A tiltable arm is attached to each dispensing head and extends in alignment with said support frame for concrete distribution across intricate structural spaces. Such configuration enables efficient and controlled concrete coverage, facilitating application within confined or complex structural areas.

, Claims:I/We Claims


A rotational dispensing apparatus (100) for controlled concrete application, comprising:
a support frame (102) including a series of hinging units (104) positioned along adjustable axes, said hinging units (104) arranged in movable relation with a set of dispensing heads (106);
a plurality of dispensing heads (106) in rotational configuration with said hinging units (104), such configuration facilitating multi-angle pouring across complex geometries;
a tiltable arm (108) attached to each said dispensing head (106) and extending in alignment with said support frame (102) for precise concrete distribution, enhancing coverage within intricate structural spaces.
The apparatus (100) of claim 1, wherein each said dispensing head (106) includes an adjustable nozzle aligned in rotational association with such dispensing head (106), thereby enabling directional control of concrete discharge for achieving targeted distribution across non-linear geometries.
The apparatus (100) of claim 1, wherein each said hinging unit (104) is positioned at an offset angle relative to said support frame (102), such offset facilitating adaptable rotation of each dispensing head (106) for increased reach and flexibility in pouring within complex architectural layouts.
The apparatus (100) of claim 1, wherein each said tiltable arm (108) aligns in a parallel orientation with said support frame (102), said alignment allowing each tiltable arm (108) to follow movement with each said hinging unit (104).
The apparatus (100) of claim 1, wherein each said dispensing head (106) is configured in an overlapping alignment with adjacent hinging units (104), such overlap enabling synchronized rotational adjustments among said dispensing heads (106) for cohesive concrete application in tightly spaced areas.
The apparatus (100) of claim 1, wherein said support frame (102) includes a coupling mechanism arranged with said hinging units (104), such coupling maintaining controlled distance and movement between each hinging unit (104) and dispensing head (106), thus ensuring regulated flow and angle consistency for accurate concrete deposition.
The apparatus (100) of claim 1, wherein each said tiltable arm (108) is in torsional alignment with said dispensing heads (106), such torsional relationship providing resilience to vibrations during concrete discharge, thus enhancing stability and accuracy in pouring within challenging structural configurations.
The apparatus (100) of claim 1, wherein each said hinging unit (104) is equipped with a positional lock feature, such feature securing said dispensing heads (106) at fixed angles when desired, thereby facilitating consistent concrete layering across critical sections of the structure.
The apparatus (100) of claim 1, wherein each said dispensing head (106) includes a pressure-regulating valve in alignment with said tiltable arm (108), such valve adjusting concrete flow to match structural demands, ensuring uniform layering and reducing excess material application.
The apparatus (100) of claim 1, wherein each said support frame (102) includes shock-absorbing brackets in conjunction with said hinging units (104), such brackets reducing operational vibrations transmitted through said tiltable arm (108) to said dispensing heads (106), thereby maintaining concrete placement accuracy under varying structural stresses.

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