INTELLIGENT WINDOW SHADING AND VENTILATION SYSTEM WITH ADJUSTABLE PANELS

Abstract

Abstract Disclosed is an adaptive window shading and ventilation control system comprising a main panel provided with a channel open in horizontal and vertical directions, a side panel including a shading inlet extending horizontally, and a top panel connected to the main panel and side panel with a ventilation outlet open vertically. A support base is positioned within a window frame along the top panel, and an extension protrudes vertically from the support base through the ventilation outlet. A mounting frame attaches to the support base and extends vertically. Additionally, a guiding component mounts to the mounting frame, exposed through the shading inlet, and a coupling portion includes an axle passing through the mounting frame, with a rotating element rotatable about the axle and exposed through the shading inlet. Dated 11 November 2024 Jigneshbhai Mungalpara IN/PA- 2640 Agent for the Applicant

Specification

Description:Intelligent Window Shading and Ventilation System with Adjustable Panels
Field of the Invention
[0001] The present disclosure generally relates to window shading and ventilation systems. Further, the present disclosure particularly relates to adaptive control systems for window shading and ventilation.
Background
[0002] 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.
[0003] Window shading and ventilation systems are integral for controlling ambient conditions within a building. Such systems typically enable the regulation of sunlight and airflow, facilitating an optimal interior environment by managing thermal loads, preventing glare, and promoting air circulation. Various types of systems have been developed to achieve shading and ventilation in both residential and commercial structures. Conventional systems generally rely on fixed structures or limited manually adjustable elements to provide basic shading and ventilation functions. However, such systems are frequently inadequate, as they often lack the flexibility to adapt to changing environmental conditions or user requirements dynamically.
[0004] In conventional window shading systems, fixed or adjustable shades are commonly installed either as interior blinds or exterior panels. Interior blinds are often restricted by limited operational modes and generally lack adaptability for different sun angles throughout the day. Fixed shading systems, such as awnings or static louvers, provide constant shading regardless of changes in sunlight direction or intensity, leading to inefficient shading control and potentially increased energy consumption due to over-reliance on artificial lighting or cooling systems. Moreover, some manually operated blinds and shades require user intervention, which is frequently impractical and inefficient, particularly for large buildings with numerous windows or for users with specific needs for optimized shading based on varying sun angles.
[0005] Further, conventional ventilation systems are generally separated from shading mechanisms and operate independently to control airflow. Ventilation systems often employ fixed outlets or simple window openings without specific directional control, leading to suboptimal air distribution. For instance, a fixed ventilation opening may not allow users to adjust airflow effectively depending on changing external conditions, thereby impacting thermal comfort within the interior environment. Many conventional systems also lack the ability to coordinate shading and ventilation functions, resulting in conflicting outcomes, such as instances where shading reduces natural light while ventilation fails to address thermal comfort adequately.
[0006] Other known systems incorporate automated mechanisms to improve shading and ventilation; however, such systems are associated with drawbacks that limit their applicability. Automated blinds or louvers based on motorised control systems are sometimes employed to provide adjustable shading and ventilation functions. In these systems, automated components adjust positions of shades based on predetermined schedules or sensor inputs, such as light or temperature sensors. Although such systems enhance functionality, their complexity often increases the installation and maintenance requirements, which can be cost-prohibitive for users. Additionally, automated mechanisms are frequently susceptible to malfunction in varying weather conditions, particularly if rain or high winds impact exterior components, thereby limiting operational reliability.
[0007] Moreover, various adaptive systems that combine shading and ventilation functions have been proposed to address the limitations of isolated shading or ventilation structures. However, many of said adaptive systems rely on bulky configurations or specialised materials, such as multi-layered panels or motorised assemblies with sensors. These components contribute to higher production costs and increased maintenance requirements, posing limitations in terms of scalability and accessibility. Additionally, the integration of multiple automated systems may lead to increased energy consumption due to the continuous operation of sensors or motors, which may contradict energy-saving objectives.
[0008] 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 adaptive control of window shading and ventilation.
[0009] 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
[00010] 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.
[00011] The present disclosure generally relates to window shading and ventilation systems. Further, the present disclosure particularly relates to adaptive control systems for window shading and ventilation.
[00012] An objective of the present disclosure is to provide an adaptive window shading and ventilation control system that facilitates improved shading and ventilation by integrating adjustable elements within a structurally reinforced enclosure. The system of the present disclosure aims to enhance energy efficiency, promote optimal air exchange, and increase stability during adverse weather conditions.
[00013] In an aspect, the present disclosure provides an adaptive window shading and ventilation control system comprising a main panel with a channel open in horizontal and vertical directions, a side panel extending horizontally with a shading inlet, and a top panel connected to the main and side panels featuring a vertically open ventilation outlet. A support base is positioned within a window frame along the top panel, while an extension protrudes vertically from the support base through the ventilation outlet. Further, a mounting frame is attached to the support base and extends vertically, a guiding component is mounted on the mounting frame and exposed through the shading inlet, and a coupling portion includes an axle passing through the mounting frame, enabling rotation of a rotating element about the axle.
[00014] Moreover, the structurally reinforced enclosure enhances shading control, minimizes thermal entry, and improves energy efficiency. The selective ventilation pathway created by the top and main panels enables controlled air inflow, reducing condensation buildup and maintaining structural support. The embedded relationship of the support base with the window frame stabilises the system during wind exposure, promoting durability across components. Mechanical cohesion between the mounting frame and extension optimises vertical support and load distribution. The parallel arrangement of the guiding component and shading inlet facilitates precise directional control of the rotating element, maximizing sunlight entry. The integrally formed extension portion near the ventilation outlet enables airflow redirection while limiting debris ingress. The rotational interface between the axle and rotating element provides stable torque distribution, allowing consistent shading adjustments. Additionally, a support rail beneath the support base ensures balanced weight distribution, reducing lateral shifts. Finally, a staggered configuration between the main panel and mounting frame enhances ventilation flow, thereby decreasing thermal load and extending system longevity.
Brief Description of the Drawings
[00015] 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:
[00016] FIG. 1 illustrates an adaptive window shading and ventilation control system (100), in accordance with the embodiments of the present disclosure.
[00017] FIG. 2 illustrates a class diagram of the adaptive window shading and ventilation control system (100), in accordance with the embodiments of the present disclosure.
Detailed Description
[00018] 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.
[00019] 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.
[00020] 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.
[00021] 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.
[00022] The present disclosure generally relates to window shading and ventilation systems. Further, the present disclosure particularly relates to adaptive control systems for window shading and ventilation.
[00023] 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.
[00024] As used herein, the term "main panel" refers to a structural element incorporated into the adaptive window shading and ventilation control system for guiding and supporting other components. Said main panel includes a channel that opens in both horizontal and vertical directions. The channel enables flexible orientation and configuration of elements along multiple axes, facilitating a wide range of movement and adaptability in shading and ventilation functions. The dual-directional channel also accommodates specific design requirements for positioning elements in ways that maximize shading coverage and air circulation. Additionally, the main panel serves as a primary support for other system components, ensuring alignment and stability within the window frame. Such main panel may include materials that withstand outdoor conditions, contributing to the system's durability. It may further include reinforcement along its length to support load distribution, especially when multiple components operate simultaneously within the system.
[00025] As used herein, the term "side panel" refers to an element positioned alongside the main panel and containing a shading inlet that extends in a horizontal direction. Said side panel is primarily responsible for regulating the entry of sunlight into the interior space, providing control over the degree of shading based on user requirements or environmental conditions. The shading inlet within the side panel enables components of the system to manage direct sunlight efficiently, reducing glare and potential heat buildup within the structure. Said side panel may also enhance the structural integrity of the system by interlocking with adjacent panels to form a stable configuration. Constructed to withstand various weather conditions, the side panel maintains functionality across diverse environmental settings. Such side panel may include materials or surface treatments that minimize wear, enhancing its longevity and effectiveness in maintaining consistent shading across operational cycles.
[00026] As used herein, the term "top panel" refers to an element connected to both the main panel and the side panel and includes a ventilation outlet that opens in the vertical direction. Said top panel enables controlled airflow through the ventilation outlet, allowing the system to manage air circulation efficiently within the window frame. The vertical orientation of the ventilation outlet within the top panel facilitates natural air exchange, which may assist in temperature regulation within an enclosed space by allowing warm air to escape while drawing in cooler air. Furthermore, the top panel provides additional support and alignment to the other panels, ensuring that the system maintains its intended orientation and functionality. Such top panel may include reinforcements or coatings that support prolonged outdoor exposure, ensuring reliable airflow control across varying environmental conditions and enhancing the resilience of the entire system.
[00027] As used herein, the term "support base" refers to a foundational component positioned within the window frame and aligned along the top panel. The support base provides a stable foundation for the system, enabling the secure positioning of various elements within the window frame. By anchoring other components, said support base facilitates proper weight distribution and reduces lateral shifts that may occur due to mechanical movement or external forces, such as wind. Positioned strategically along the top panel, the support base enhances the structural integrity of the system, maintaining component alignment and stability. Said support base may include materials with sufficient durability to withstand long-term use, especially in scenarios involving frequent adjustments or high-stress environments. Additionally, the support base provides a base for other elements to operate effectively, ensuring the entire system remains securely and stably aligned during operation.
[00028] As used herein, the term "extension" refers to an element that protrudes in a vertical direction from the support base and extends through the ventilation outlet in the top panel. Said extension facilitates airflow control by providing a pathway for air movement, effectively utilizing the ventilation outlet to enhance natural ventilation within an enclosed space. By aligning vertically with the support base, the extension maintains stability, especially when responding to external environmental forces. Positioned within the ventilation outlet, such extension may enable precise control over the volume of airflow based on user settings or environmental needs. Constructed to accommodate varying airflow requirements, the extension contributes to effective air circulation and ventilation, improving overall indoor air quality. Additionally, materials used in the extension allow it to withstand outdoor conditions, ensuring its durability and reliability in diverse operational scenarios.
[00029] As used herein, the term "mounting frame" refers to a support structure that attaches to the support base and extends in a vertical direction. The mounting frame enables alignment and positioning of other system components by providing a stable framework, allowing precise control of shading and ventilation functions. Said mounting frame serves as an anchor for additional elements, facilitating their placement and orientation within the adaptive system. Constructed to enhance load-bearing capacity, the mounting frame ensures that other components remain securely attached and aligned, even during operational adjustments. Additionally, materials used in the mounting frame support long-term structural integrity, providing resilience to mechanical stress and external conditions. The mounting frame's vertical extension allows components to operate efficiently by maintaining alignment and stability, enabling the system to function reliably in dynamic environmental conditions.
[00030] As used herein, the term "guiding component" refers to an element mounted on the mounting frame and exposed through the shading inlet on the side panel. The guiding component provides directional control within the system, enabling precise positioning of shading elements. Said guiding component facilitates alignment and movement along the horizontal axis, allowing controlled shading adjustments based on varying sunlight angles or user preferences. Mounted securely on the mounting frame, the guiding component assists in the stability and functionality of shading components, reducing wear by maintaining alignment during operation. Additionally, the guiding component's positioning within the shading inlet ensures that shading adjustments are performed smoothly, reducing the risk of mechanical interference or misalignment. Constructed for durability, such guiding component may include materials that support prolonged operation and maintain reliability under frequent usage conditions.
[00031] As used herein, the term "coupling portion" refers to a structural component comprising an axle that passes through the mounting frame, facilitating rotational alignment within the system. The coupling portion serves as a connector for the rotating element, enabling secure attachment while allowing rotational movement about the axle. By aligning with the mounting frame, said coupling portion supports balanced distribution of mechanical forces, ensuring stability during shading adjustments. Additionally, the coupling portion assists in torque control, enabling the system to perform precise rotational movements without compromising component integrity. Positioned strategically within the mounting frame, the coupling portion may also reduce mechanical strain on surrounding elements, contributing to overall system durability. Materials selected for the coupling portion provide necessary resilience against wear, supporting consistent performance in changing environmental and operational conditions.
[00032] As used herein, the term "rotating element" refers to a component exposed through the shading inlet on the side panel, capable of rotating about the axle within the coupling portion. The rotating element enables dynamic shading control by adjusting its position relative to sunlight angles, offering customizable shading based on environmental or user-determined settings. Positioned within the shading inlet, said rotating element maximizes exposure to sunlight control, allowing fine adjustments to regulate light entry. Additionally, the rotating element's rotational capability about the axle allows it to align accurately with various shading requirements, enhancing system functionality. Constructed to endure operational demands, such rotating element includes materials suitable for prolonged exposure and frequent adjustments, ensuring continued performance and reliability across diverse environmental conditions.
[00033] FIG. 1 illustrates an adaptive window shading and ventilation control system (100), in accordance with the embodiments of the present disclosure. In an embodiment, a main panel 102 of an adaptive window shading and ventilation control system 100 comprises a channel 104. Said channel 104 is open in both a horizontal direction 106 and a vertical direction 108. The main panel 102 operates as a structural component that serves to guide and support other parts of the system 100, providing a stable configuration for effective shading and ventilation. The horizontal direction 106 and vertical direction 108 openings within the channel 104 allow components to be positioned and adjusted along two perpendicular axes, thereby enhancing the alignment and adaptability of the entire system. This orientation enables the main panel 102 to accommodate and secure other components, such as the side panel 110 and top panel 114, by providing space for movement and positioning adjustments within the channel 104. Said channel 104 in the main panel 102 can be manufactured from materials selected for durability under external conditions, ensuring prolonged operational stability. The main panel 102, therefore, serves as a foundational element, facilitating the structural organization of various system components by allowing for flexibility in the positioning of other elements.
[00034] In an embodiment, a side panel 110 in the adaptive window shading and ventilation control system 100 comprises a shading inlet 112 extending in the horizontal direction 106. The side panel 110 functions as a mechanism for managing sunlight entry, enabling selective shading based on environmental or user-specified requirements. The shading inlet 112 provides a designated space for shading components within the system to operate, allowing controlled regulation of light entering an interior space. By orienting the shading inlet 112 in a horizontal direction 106, the side panel 110 facilitates shading adjustments that align with the direction of incoming sunlight, which is generally more pronounced horizontally due to the natural path of the sun. The side panel 110 may be formed from materials selected to withstand environmental exposure, thereby maintaining shading performance over time. The configuration of the side panel 110 and the orientation of the shading inlet 112 support both effective light control and structural stability within the system.
[00035] In an embodiment, a top panel 114 within the adaptive window shading and ventilation control system 100 connects to both the main panel 102 and the side panel 110 and includes a ventilation outlet 116 open in the vertical direction 108. The top panel 114 facilitates ventilation by enabling a pathway for airflow through the vertical ventilation outlet 116, allowing for efficient air exchange within the structure. The vertical positioning of the ventilation outlet 116 aligns with the natural flow of warm air, which rises, thereby enhancing the functionality of the system 100 in regulating interior temperature and humidity. The top panel 114 additionally serves to align and stabilize the connection between the main panel 102 and the side panel 110, supporting the structural integrity of the entire assembly. The materials chosen for the top panel 114 may be selected to withstand external environmental factors, thereby preserving the ventilation capabilities and structural strength of the system 100 over time.
[00036] In an embodiment, a support base 118 in the adaptive window shading and ventilation control system 100 is positioned within a window frame 120 along the top panel 114. The support base 118 serves as an anchor for the system 100, ensuring stable installation within the window frame 120. By aligning with the top panel 114, the support base 118 provides a secure foundation for various components, enabling precise alignment and reducing movement that may be caused by external factors, such as wind or mechanical adjustments. The support base 118 can be manufactured from durable materials, enhancing its capacity to maintain stability under variable environmental conditions. Additionally, the integration of the support base 118 along the top panel 114 allows the system to distribute weight and load efficiently across the window frame 120, improving the overall operational reliability of the system 100.
[00037] In an embodiment, an extension 122 is incorporated within the adaptive window shading and ventilation control system 100, protruding in the vertical direction 108 from the support base 118 and extending through the ventilation outlet 116 of the top panel 114. The extension 122 facilitates the flow of air through the ventilation outlet 116, serving as a pathway for ventilation control. By protruding vertically, the extension 122 allows air to pass from the lower to the upper portions of the structure, aiding in natural ventilation and temperature regulation within the enclosed area. Positioned to work in tandem with the support base 118 and top panel 114, the extension 122 contributes to maintaining alignment of the entire system. Materials selected for the extension 122 may be chosen to withstand environmental exposure, ensuring consistent ventilation functionality over time.
[00038] In an embodiment, a mounting frame 124 is incorporated within the adaptive window shading and ventilation control system 100, attached to the support base 118 and extending in the vertical direction 108. The mounting frame 124 serves as a structural support that aligns and stabilizes other components, allowing the system 100 to maintain its functional configuration during operation. The vertical extension of the mounting frame 124 enables optimal alignment with other system elements, facilitating organized installation and efficient load distribution. The mounting frame 124 provides a stable attachment point for additional components, supporting their positioning and movement within the system. Constructed from materials selected for long-term durability, the mounting frame 124 enhances the system's resistance to mechanical stress, ensuring reliable performance under varying operational conditions.
[00039] In an embodiment, a guiding component 126 is mounted to the mounting frame 124 in the adaptive window shading and ventilation control system 100 and is exposed through the shading inlet 112 in the side panel 110. The guiding component 126 enables controlled movement and directional alignment of shading elements within the system, allowing for precise adjustments in shading coverage based on environmental conditions. Exposed through the shading inlet 112, the guiding component 126 interacts directly with other shading components, facilitating movement in response to sunlight direction. The secure mounting of the guiding component 126 on the mounting frame 124 enhances stability, reducing potential misalignment and mechanical wear during operation. Materials for the guiding component 126 may be selected for durability to maintain reliable shading control over extended usage.
[00040] In an embodiment, a coupling portion 128 in the adaptive window shading and ventilation control system 100 comprises an axle 130 that passes through the mounting frame 124. The coupling portion 128 serves as a connector for rotational components, enabling controlled movement within the system. The axle 130 within the coupling portion 128 allows attached elements to rotate around a fixed axis, providing flexibility for shading adjustments. By passing through the mounting frame 124, the axle 130 ensures stable alignment, allowing for smooth rotational movement that is unaffected by external disturbances. The coupling portion 128 and the axle 130 may be constructed from materials suitable for rotational applications, ensuring consistency in movement and wear resistance, thereby supporting prolonged system functionality.
[00041] In an embodiment, a rotating element 132 is included in the adaptive window shading and ventilation control system 100, exposed through the shading inlet 112 in the side panel 110 and rotatable about the axle 130 within the coupling portion 128. The rotating element 132 allows the system to dynamically adjust shading by rotating in alignment with sunlight direction, thereby providing user-controlled shading regulation. Positioned through the shading inlet 112, the rotating element 132 optimizes shading functionality by permitting angular adjustments. The rotational capability around the axle 130 enables precise control over shading, accommodating varied lighting needs. Materials selected for the rotating element 132 provide resilience against operational wear, enabling the element to perform effectively in changing sunlight conditions over extended periods of use.
[00042] In an embodiment, the adaptive window shading and ventilation control system includes a main panel aligned perpendicularly with a side panel, thereby forming a structurally reinforced enclosure. This perpendicular arrangement establishes a stable, closed configuration, which enhances the overall shading control capabilities of the side panel when the system is exposed to direct sunlight. By creating an enclosure, the main panel and side panel cooperate to block and diffuse sunlight more effectively, reducing the entry of heat into the enclosed space. Such orientation minimizes thermal gain and promotes energy efficiency by limiting the need for artificial cooling, particularly in high-sunlight environments. The materials selected for both the main panel and side panel are suitable for outdoor conditions, ensuring resilience against weather impacts while maintaining optimal shading performance. The perpendicular alignment provides additional support for adjacent elements, distributing structural stress evenly and improving the durability of the system across various environmental settings. The reinforced enclosure thus formed by the main panel and side panel arrangement plays a significant role in regulating interior temperature and enhancing user comfort through consistent shading.
[00043] In an embodiment, the adaptive window shading and ventilation control system includes a top panel aligned obliquely with the main panel to create a selective ventilation pathway through the ventilation outlet, which is vertically oriented within the top panel. Such oblique alignment between the top panel and main panel establishes a controlled airflow channel that optimizes air exchange within the enclosed space. This arrangement allows air to enter and exit through the ventilation outlet in a manner that supports temperature regulation while reducing potential condensation buildup. The oblique orientation of the top panel enables the system to direct airflow in a manner that maintains interior comfort without compromising the structural support provided by the support base. Additionally, the angle between the top panel and main panel allows air to flow more freely and evenly, facilitating effective ventilation while preserving the stability of the overall system. The configuration of the top panel and main panel provides a means of managing interior climate conditions naturally by controlling air inflow and promoting a consistent internal environment.
[00044] In an embodiment, the adaptive window shading and ventilation control system includes a support base embedded within a window frame, positioned along the top panel. This embedded relationship between the support base and window frame facilitates stable placement of the support base, reducing movement and ensuring secure installation of the entire system. The

integration of the support base within the window frame helps in minimizing oscillations that might otherwise occur due to wind exposure or mechanical adjustments, thus enhancing the durability and lifespan of system components. The embedded positioning of the support base allows for effective load distribution across the window frame, thereby reducing structural stress on individual parts. The materials selected for the support base are chosen for their strength and resistance to environmental conditions, ensuring long-term stability even under challenging conditions. The embedded support base also contributes to an overall reduction in vibrations and potential loosening of parts, providing a stable anchor for other components and maintaining system integrity during operation.
[00045] In an embodiment, the adaptive window shading and ventilation control system includes a mounting frame oriented adjacently with respect to an extension that protrudes vertically from the support base. This adjacent orientation enhances the mechanical cohesion between the mounting frame and the extension, enabling the system to maintain a rigid alignment that optimizes vertical support. The positioning of the mounting frame in relation to the extension allows for efficient load distribution, particularly during adjustments of the window or system components, preventing misalignment or undue stress on individual elements. The mounting frame and extension combination provides structural reinforcement that reduces the risk of bending or deformation over time. The materials chosen for both the mounting frame and extension are selected to withstand operational stresses, further promoting structural reliability. The adjacent alignment of the mounting frame and extension contributes to the overall stability of the system, ensuring a secure connection that remains intact throughout various operational conditions.
[00046] In an embodiment, the adaptive window shading and ventilation control system includes a guiding component arranged in parallel with the shading inlet within the side panel. The parallel arrangement of the guiding component with the shading inlet enables precise directional control of a rotating element exposed through the shading inlet, thereby facilitating alignment adjustments for optimal shading. This arrangement allows the rotating element to respond effectively to varying angles of sunlight, maximizing control over the amount and direction of light entering the interior space. By aligning the guiding component in parallel with the shading inlet, the system supports seamless movement and adjustment of the rotating element, ensuring consistent shading performance. The materials selected for the guiding component provide durability and enable smooth operation, while reducing wear on the shading inlet. The parallel configuration of the guiding component and shading inlet offers a reliable structure that allows for efficient shading adjustments, enhancing the overall adaptability of the system to changing lighting conditions.
[00047] In an embodiment, the adaptive window shading and ventilation control system includes an extension portion integrally formed with the top panel and positioned vertically adjacent to the ventilation outlet. The extension portion facilitates airflow redirection, allowing for enhanced control over ventilation while mitigating the ingress of external debris. Positioned adjacent to the ventilation outlet, the extension portion helps maintain an unobstructed flow of air through the ventilation pathway, supporting effective air exchange without compromising cleanliness within the system. The integral formation of the extension portion with the top panel provides structural stability, ensuring that the extension portion remains securely attached and aligned with the ventilation outlet. The materials selected for the extension portion contribute to its durability and ability to withstand various environmental conditions. The extension portion provides a barrier against debris while promoting consistent airflow, supporting the functionality of the system across a range of operational settings.
[00048] In an embodiment, the adaptive window shading and ventilation control system includes an axle within a coupling portion that is rotationally interfaced with a rotating element. The rotational interface between the axle and rotating element allows for enhanced stability and consistent torque distribution, which enables precise control over shading adjustments. The axle within the coupling portion supports smooth rotation of the rotating element, allowing it to adjust its position based on the angle of incoming sunlight. The rotational connection ensures that the movement of the rotating element remains stable, preventing excessive torque buildup that could disrupt system operation. Materials selected for the axle and coupling portion are chosen to provide resistance to wear, ensuring long-lasting performance of the rotational interface. This arrangement enables the rotating element to perform controlled shading adjustments, optimizing sunlight entry based on user requirements or environmental factors.
[00049] In an embodiment, the adaptive window shading and ventilation control system further includes a support rail positioned contiguously beneath the support base within the window frame. The contiguous placement of the support rail along the length of the support base ensures balanced weight distribution across the support base, which helps in minimizing lateral shifts during mechanical operation. The support rail functions as a stabilizing element that reinforces the position of the support base, reducing movement that could lead to structural misalignment. The materials chosen for the support rail provide the necessary strength and resistance to environmental stress, contributing to the overall stability and durability of the system. Positioned beneath the support base, the support rail also assists in maintaining proper alignment of the system components, ensuring that all elements operate in harmony within the window frame during adjustments.
[00050] In an embodiment, the adaptive window shading and ventilation control system includes a main panel and a mounting frame that are arranged in a staggered configuration, enhancing ventilation flow through a channel within the main panel. The staggered alignment of the main panel and mounting frame creates a pathway that allows air to pass through the channel, facilitating controlled airflow and reducing thermal load on the main panel during operation. This configuration supports effective ventilation by allowing air to circulate freely, preventing excessive heat buildup on the main panel and maintaining a stable interior temperature. The materials selected for the main panel and mounting frame are chosen to provide durability and resistance to thermal stress, ensuring consistent performance over time. The staggered arrangement of the main panel and mounting frame allows the system to achieve balanced ventilation while preserving the structural integrity of the system across various environmental conditions.
[00051] FIG. 2 illustrates a class diagram of the adaptive window shading and ventilation control system (100), in accordance with the embodiments of the present disclosure. The adaptive window shading and ventilation control system comprises interconnected components that enhance shading and airflow. At its core, the main panel (102) includes a channel (104) open in both horizontal (106) and vertical (108) directions, supporting flexible positioning of adjacent elements. The side panel (110), connected to the main panel, incorporates a shading inlet (112) that extends horizontally to control sunlight entry. Aligned with both the main and side panels, the top panel (114) contains a vertically oriented ventilation outlet (116) to facilitate air exchange. The support base (118) is embedded within a window frame (120) along the top panel, providing foundational stability. Protruding from the support base, an extension (122) passes through the ventilation outlet for improved airflow control. The mounting frame (124), attached to the support base, vertically aligns with the guiding component (126), exposed through the shading inlet to assist shading adjustments. A coupling portion (128), including an axle (130), interacts with a rotating element (132) that rotates about the axle through the shading inlet, allowing adaptable shading in response to sunlight angles. Together, these elements create a cohesive system optimizing shading and ventilation while maintaining structural alignment.
[00052] In an embodiment, the main panel provided with a channel that opens in both horizontal and vertical directions facilitates multi-directional movement and alignment of various system components. The channel allows for flexible positioning, enabling components to adjust along two perpendicular axes, which promotes adaptability in shading and ventilation functions. This multi-directional opening also enhances the system's ability to manage sunlight and airflow by allowing different elements to interact seamlessly within the main panel. The horizontal orientation supports alignment with other horizontally-oriented components, while the vertical orientation accommodates elements positioned vertically, creating a versatile framework for the system. The channel's dual-directional design further aids in distributing structural loads across the main panel, enhancing durability and stability. Additionally, the open channel allows for streamlined airflow, reducing obstruction and promoting efficient ventilation within the system's structure.
[00053] In an embodiment, the side panel with a shading inlet extending in the horizontal direction allows the system to control sunlight entry precisely. The horizontal orientation of the shading inlet is particularly effective for managing light that travels at low angles, such as morning or evening sunlight. By extending horizontally, the shading inlet allows the side panel to provide shade selectively, minimizing direct sunlight entry while still allowing diffused light to pass through. This configuration helps to regulate the interior temperature by blocking excessive sunlight, thereby reducing the need for artificial cooling and contributing to energy efficiency. The shading inlet's horizontal orientation also enhances the structural alignment between the side panel and adjacent components, maintaining stability while providing an effective shading mechanism. The construction of the shading inlet allows it to maintain alignment under various operating conditions, ensuring consistent shading control over time.
[00054] In an embodiment, the top panel connected to both the main panel and the side panel, and featuring a vertically-oriented ventilation outlet, creates an effective pathway for air exchange. The vertical alignment of the ventilation outlet supports natural convection, allowing warm air to escape while drawing in cooler air, which aids in maintaining a stable internal temperature. The connection between the top panel, main panel, and side panel forms an integrated structure that facilitates controlled airflow without compromising the stability of the system. The top panel's design allows air to flow freely through the outlet, reducing condensation buildup and promoting a comfortable environment within the enclosed space. By directing airflow through the ventilation outlet, the top panel contributes to effective ventilation, particularly in warmer conditions where interior air circulation is essential. The vertical orientation of the outlet enables continuous airflow while maintaining structural integrity.
[00055] In an embodiment, the support base positioned within a window frame along the top panel provides a stable foundation for the system. The placement of the support base within the window frame enhances the overall stability of the structure, reducing movement and vibrations that could affect performance. By being positioned along the top panel, the support base assists in distributing the weight of the entire system evenly across the window frame, minimizing stress on individual components and enhancing durability. This positioning also prevents oscillations caused by wind or mechanical adjustments, ensuring that the system remains securely aligned during operation. The embedded nature of the support base within the window frame promotes long-term stability, allowing the system to withstand variable environmental conditions. Additionally, the support base acts as an anchor, maintaining the correct alignment of all attached components and preventing misalignment or detachment.
[00056] In an embodiment, the extension protruding in the vertical direction from the support base and passing through the ventilation outlet facilitates controlled airflow within the system. The vertical orientation of the extension allows it to direct air through the ventilation outlet effectively, enhancing the system's ventilation capabilities. The extension's alignment with the support base and ventilation outlet creates a pathway that supports air movement without obstructions, allowing for efficient temperature regulation within the space. This configuration also contributes to maintaining the structural balance of the system by providing an additional point of support that aligns with other vertically oriented components. The positioning of the extension within the ventilation outlet aids in reducing condensation and promoting air circulation. Constructed from materials suited for environmental exposure, the extension contributes to consistent ventilation performance, helping to maintain a comfortable and regulated interior environment.
[00057] In an embodiment, the mounting frame attached to the support base and extending in the vertical direction serves as a support structure that enhances the system's overall rigidity. The vertical alignment of the mounting frame allows it to align with other vertically-oriented components, optimizing structural cohesion within the system. The attachment of the mounting frame to the support base provides a stable anchor point for additional elements, allowing the system to distribute loads effectively and maintain consistent alignment. The mounting frame's vertical extension further facilitates the positioning of components along a central axis, reducing lateral movement and improving the overall stability of the system. By providing a robust structure for mounting other components, the mounting frame minimizes mechanical stress, enhancing the durability of the system during frequent adjustments or exposure to external forces. The mounting frame's configuration allows it to support vertical loads efficiently, contributing to balanced load distribution.
[00058] In an embodiment, the guiding component mounted on the mounting frame and exposed through the shading inlet enables precise directional control of the rotating element. The guiding component's parallel alignment with the shading inlet supports accurate positioning, allowing the rotating element to move in response to varying sunlight angles. This configuration enhances the system's ability to manage sunlight entry effectively by enabling the rotating element to adjust based on user preferences or environmental conditions. The guiding component's parallel arrangement ensures smooth movement of the rotating element, reducing friction and wear, which contributes to consistent shading performance over time. By maintaining precise alignment within the shading inlet, the guiding component provides controlled adjustment capabilities, allowing users to maximize shading efficiency. The guiding component's structural alignment with the shading inlet supports optimal control over sunlight exposure, enhancing the shading capabilities of the system.
[00059] In an embodiment, the coupling portion comprising an axle that passes through the mounting frame provides rotational stability for the rotating element. The axle's rotational interface with the rotating element enables smooth movement, allowing the rotating element to adjust its position accurately in response to light changes. The coupling portion facilitates consistent torque distribution across the axle, reducing mechanical stress on the rotating element and ensuring reliable rotation. The connection between the axle and rotating element allows for controlled shading adjustments, enabling the system to manage sunlight entry efficiently. By interfacing with the mounting frame, the coupling portion maintains stable alignment, preventing the rotating element from deviating from its intended path. The materials selected for the axle and coupling portion provide durability, ensuring that the rotational mechanism remains functional over extended periods of use.
[00060] In an embodiment, a support rail positioned contiguously beneath the support base within the window frame provides balanced weight distribution across the length of the support base. The contiguous placement of the support rail enhances stability by minimizing lateral shifts during operation, ensuring that the system remains aligned within the window frame. This alignment prevents uneven weight distribution, reducing the risk of component wear and promoting long-term durability. The support rail acts as a stabilizing element that reinforces the support base, maintaining consistent alignment even during mechanical adjustments. By supporting the system along its length, the support rail distributes operational stresses evenly, which helps to prevent structural degradation over time. The contiguous positioning of the support rail also reduces vibration, which contributes to maintaining the overall structural integrity of the system.
[00061] In an embodiment, the staggered configuration of the main panel and mounting frame enhances ventilation flow through the channel in the main panel. The staggered alignment creates a pathway that facilitates air movement, reducing thermal load on the main panel by allowing heat to dissipate effectively. This configuration supports controlled airflow, promoting temperature regulation within the enclosed space and preventing excessive heat buildup. By enhancing ventilation flow through the channel, the staggered configuration minimizes the risk of overheating, contributing to a stable internal environment. The materials chosen for the main panel and mounting frame are suited to withstand thermal stress, ensuring that the system operates efficiently even in high-temperature conditions. The staggered configuration allows air to circulate freely, optimizing ventilation performance while maintaining the structural stability of the system.
[00062] Further, while operations are depicted in a particular order, this should not be understood as requiring that such operations be performed in the particular order shown or in sequential order, or that all illustrated operations be performed, to achieve desirable results. In certain circumstances, multitasking and parallel processing may be advantageous. Likewise, while several specific implementation details are contained in the above discussions, these should not be construed as limitations on the scope of the subject matter described herein, but rather as descriptions of features that may be specific to particular embodiments. Certain features that are described in this specification in the context of separate embodiments can also be implemented in combination in a single embodiment. Conversely, various features that are described in the context of a single embodiment can also be implemented in multiple embodiments separately or in any suitable sub-combination. Moreover, although features may be described above as acting in certain combinations and even initially claimed as such, one or more features from a claimed combination can in some cases be excised from the combination, and the claimed combination may be directed to a sub-combination or variation of a sub-combination.
[00063] The term "memory," as used herein relates to a volatile or persistent medium, such as a magnetic disk, or optical disk, in which a computer can store data or software for any duration. Optionally, the memory is non-volatile mass storage such as physical storage media. Furthermore, a single memory may encompass and in a scenario wherein computing system is distributed, the processing, memory and/or storage capability may be distributed as well.
[00064] Throughout the present disclosure, the term 'server' relates to a structure and/or module that include programmable and/or non-programmable components configured to store, process and/or share information. Optionally, the server includes any arrangement of physical or virtual computational entities capable of enhancing information to perform various computational tasks.
[00065] Throughout the present disclosure, the term "network" relates to an arrangement of interconnected programmable and/or non-programmable components that are configured to facilitate data communication between one or more electronic devices and/or databases, whether available or known at the time of filing or as later developed. Furthermore, the network may include, but is not limited to, one or more peer-to-peer network, a hybrid peer-to-peer network, local area networks (LANs), radio access networks (RANs), metropolitan area networks (MANS), wide area networks (WANs), all or a portion of a public network such as the global computer network known as the Internet, a private network, a cellular network and any other communication system or systems at one or more locations.
[00066] Throughout the present disclosure, the term "process"* relates to any collection or set of instructions executable by a computer or other digital system so as to configure the computer or the digital system to perform a task that is the intent of the process.
[00067] Throughout the present disclosure, the term 'Artificial intelligence (AI)' as used herein relates to any mechanism or computationally intelligent system that combines knowledge, techniques, and methodologies for controlling a bot or other element within a computing environment. Furthermore, the artificial intelligence (AI) is configured to apply knowledge and that can adapt it-self and learn to do better in changing environments. Additionally, employing any computationally intelligent technique, the artificial intelligence (AI) is operable to adapt to unknown or changing environment for better performance. The artificial intelligence (AI) includes fuzzy logic engines, decision-making engines, preset targeting accuracy levels, and/or programmatically intelligent software.













Claims
I/We Claim:
1. An adaptive window shading and ventilation control system (100) comprising:
a main panel (102) provided with a channel (104) open in a horizontal direction (106) and a vertical direction (108);
a side panel (110) provided with a shading inlet (112) extending in the horizontal direction (106);
a top panel (114) connected to the main panel (102) and side panel (110) and provided with a ventilation outlet (116) open in the vertical direction (108);
a support base (118) positioned within a window frame (120) along the top panel (114);
an extension (122) protruding in the vertical direction (108) from the support base (118) through the ventilation outlet (116);
a mounting frame (124) attached to the support base (118) and extending in the vertical direction (108);
a guiding component (126) mounted to the mounting frame (124) and exposed through the shading inlet (112);
a coupling portion (128) comprising an axle (130) passing through the mounting frame (124); and
a rotating element (132) exposed through the shading inlet (112) rotatable about the axle (130).
Claim 2:
The adaptive window shading and ventilation control system (100) of Claim 1, wherein said main panel (102) is aligned perpendicularly with said side panel (110), forming a structurally reinforced enclosure that enhances the shading control capabilities of such side panel (110) when the system is exposed to direct sunlight, thereby contributing to improved energy efficiency by minimizing thermal entry.
Claim 3:
The adaptive window shading and ventilation control system (100) of Claim 1, wherein said top panel (114) is aligned obliquely with said main panel (102), creating a selective ventilation pathway with the ventilation outlet (116) that enhances air exchange, while maintaining the structural support of said support base (118), thereby allowing controlled air inflow and reducing condensation buildup.
Claim 4:
The adaptive window shading and ventilation control system (100) of Claim 1, wherein said support base (118) is in an embedded relationship with said window frame (120) along said top panel (114), facilitating stable placement of such support base (118) and contributing to reduced oscillations in the system, enhancing the durability of all components during wind exposure.
Claim 5:
The adaptive window shading and ventilation control system (100) of Claim 1, wherein said mounting frame (124) is oriented adjacently with respect to said extension (122), enhancing the mechanical cohesion and providing rigid alignment that optimizes vertical support for the system, which allows for efficient load distribution during window adjustments.
Claim 6:
The adaptive window shading and ventilation control system (100) of Claim 1, wherein said guiding component (126) is arranged in parallel with said shading inlet (112), enabling precise directional control of the rotating element (132) exposed through the shading inlet (112), thus optimizing shading alignment and maximizing user-directed sunlight entry.
Claim 7:
The adaptive window shading and ventilation control system (100) of Claim 1, further comprising an extension portion integrally formed with said top panel (114) and positioned vertically adjacent to said ventilation outlet (116), facilitating enhanced airflow redirection that mitigates external debris ingress while maintaining unobstructed ventilation flow.
Claim 8:
The adaptive window shading and ventilation control system (100) of Claim 1, wherein said axle (130) within said coupling portion (128) is rotationally interfaced with said rotating element (132), allowing enhanced rotational stability and consistent torque distribution for precision control over shading adjustments in response to varying light angles.
Claim 9:
The adaptive window shading and ventilation control system (100) of Claim 1, further comprising a support rail positioned contiguously beneath said support base (118) within the window frame (120), ensuring balanced weight distribution across the length of said support base (118) and minimizing lateral shifts during mechanical operation.
Claim 10:
The adaptive window shading and ventilation control system (100) of Claim 1, wherein said main panel (102) and said mounting frame (124) are in a staggered configuration, enhancing ventilation flow through the channel (104) in a way that reduces thermal load on said main panel (102) during operation, thus extending system longevity.




Dated 11 November 2024 Jigneshbhai Mungalpara
IN/PA- 2640
Agent for the Applicant



Intelligent Window Shading and Ventilation System with Adjustable Panels
Abstract
Disclosed is an adaptive window shading and ventilation control system comprising a main panel provided with a channel open in horizontal and vertical directions, a side panel including a shading inlet extending horizontally, and a top panel connected to the main panel and side panel with a ventilation outlet open vertically. A support base is positioned within a window frame along the top panel, and an extension protrudes vertically from the support base through the ventilation outlet. A mounting frame attaches to the support base and extends vertically. Additionally, a guiding component mounts to the mounting frame, exposed through the shading inlet, and a coupling portion includes an axle passing through the mounting frame, with a rotating element rotatable about the axle and exposed through the shading inlet.


Dated 11 November 2024 Jigneshbhai Mungalpara
IN/PA- 2640
Agent for the Applicant
, Claims:Claims
I/We Claim:
1. An adaptive window shading and ventilation control system (100) comprising:
a main panel (102) provided with a channel (104) open in a horizontal direction (106) and a vertical direction (108);
a side panel (110) provided with a shading inlet (112) extending in the horizontal direction (106);
a top panel (114) connected to the main panel (102) and side panel (110) and provided with a ventilation outlet (116) open in the vertical direction (108);
a support base (118) positioned within a window frame (120) along the top panel (114);
an extension (122) protruding in the vertical direction (108) from the support base (118) through the ventilation outlet (116);
a mounting frame (124) attached to the support base (118) and extending in the vertical direction (108);
a guiding component (126) mounted to the mounting frame (124) and exposed through the shading inlet (112);
a coupling portion (128) comprising an axle (130) passing through the mounting frame (124); and
a rotating element (132) exposed through the shading inlet (112) rotatable about the axle (130).
Claim 2:
The adaptive window shading and ventilation control system (100) of Claim 1, wherein said main panel (102) is aligned perpendicularly with said side panel (110), forming a structurally reinforced enclosure that enhances the shading control capabilities of such side panel (110) when the system is exposed to direct sunlight, thereby contributing to improved energy efficiency by minimizing thermal entry.
Claim 3:
The adaptive window shading and ventilation control system (100) of Claim 1, wherein said top panel (114) is aligned obliquely with said main panel (102), creating a selective ventilation pathway with the ventilation outlet (116) that enhances air exchange, while maintaining the structural support of said support base (118), thereby allowing controlled air inflow and reducing condensation buildup.
Claim 4:
The adaptive window shading and ventilation control system (100) of Claim 1, wherein said support base (118) is in an embedded relationship with said window frame (120) along said top panel (114), facilitating stable placement of such support base (118) and contributing to reduced oscillations in the system, enhancing the durability of all components during wind exposure.
Claim 5:
The adaptive window shading and ventilation control system (100) of Claim 1, wherein said mounting frame (124) is oriented adjacently with respect to said extension (122), enhancing the mechanical cohesion and providing rigid alignment that optimizes vertical support for the system, which allows for efficient load distribution during window adjustments.
Claim 6:
The adaptive window shading and ventilation control system (100) of Claim 1, wherein said guiding component (126) is arranged in parallel with said shading inlet (112), enabling precise directional control of the rotating element (132) exposed through the shading inlet (112), thus optimizing shading alignment and maximizing user-directed sunlight entry.
Claim 7:
The adaptive window shading and ventilation control system (100) of Claim 1, further comprising an extension portion integrally formed with said top panel (114) and positioned vertically adjacent to said ventilation outlet (116), facilitating enhanced airflow redirection that mitigates external debris ingress while maintaining unobstructed ventilation flow.
Claim 8:
The adaptive window shading and ventilation control system (100) of Claim 1, wherein said axle (130) within said coupling portion (128) is rotationally interfaced with said rotating element (132), allowing enhanced rotational stability and consistent torque distribution for precision control over shading adjustments in response to varying light angles.
Claim 9:
The adaptive window shading and ventilation control system (100) of Claim 1, further comprising a support rail positioned contiguously beneath said support base (118) within the window frame (120), ensuring balanced weight distribution across the length of said support base (118) and minimizing lateral shifts during mechanical operation.
Claim 10:
The adaptive window shading and ventilation control system (100) of Claim 1, wherein said main panel (102) and said mounting frame (124) are in a staggered configuration, enhancing ventilation flow through the channel (104) in a way that reduces thermal load on said main panel (102) during operation, thus extending system longevity.




Dated 11 November 2024 Jigneshbhai Mungalpara
IN/PA- 2640
Agent for the Applicant

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