Abstract: A shading system includes a housing extending along a longitudinal housing direction; a plurality of shading blades extending along a longitudinal blade direction; a coupling system comprising: a first rail; and a second rail. Each of the shading blades is rotatably coupled to the first rail and to the second rail. A coupling element is rotatably coupled to the housing and rotatably coupled to the second rail. An actuator to translate the first rail along the longitudinal housing direction. The coupling element rotates the shading blades by limiting a translation of the second rail. A rain gutter extends along the longitudinal housing direction below the plurality of shading blades.

Abstract: A system, device and method for reducing wind-induced vibration using cladding includes one or more movable panels attached to an outer facade of a high-rise building, skyscraper or any other structure subject to wind-induced vibration.

Abstract: A covering system includes a flexible, web-like membrane having first and second portions. A first cross support is connected to the first portion of the membrane, and a second cross support is connected to the second portion of the membrane. A drive mechanism is provided for moving the second cross support relative to the first cross support so that the membrane is movable between a first, retracted position and a second, deployed position. The drive mechanism includes a force multiplication mechanism for facilitating a longitudinal tensile stress application to the membrane when it is in the second, deployed position. A transverse tensioning mechanism that includes a catenary linkage is also provided for tensioning the membrane in a direction that is transverse to the longitudinal direction.

Abstract: A sunscreen structure including a top supporting structure securable to the building at a location near a top of an area to be screened from the sun and at least one slat panel suspended from the top supporting structure. A lower standoff structure is securable to the building at a location below the top supporting structure and is releasably securable to the at least one slat panel. An operable support is coupled between the lower standoff structure and the slat panel. The slat panel is shiftable between a first position where the slat panel is secured to the lower standoff structure and a second position where a lower portion of the one slat panel is displaced outwardly away from the lower standoff structure and supported in the second position by the operable support.

Abstract: A rigid retractable patio or window awning includes a number of rigid panels disposed in a tiered relationship with each other. Each lower panel is slidably connected with its respective upper panel via a set of slides. The top panel remains stationary. An awning operating mechanism includes arms connected via swivel joints with the bottom panel. Each arm also is connected via a threaded nut with a drive screw. The awning is extended by rotating the drive screw, which causes the nuts to travel along the drive screw causing the arms to push the bottom panel outwardly and the bottom panel to pull along any intermediate panels. The awning is retracted by rotating the drive screw in the opposite direction.

Abstract: A rigid retractable patio or window awning includes a number of rigid panels disposed in a tiered relationship with each other. Each lower panel is slidably connected with its respective upper panel via a set of slides. The top panel remains stationary. An awning operating mechanism includes arms connected via swivel joints with the bottom panel. Each arm also is connected via a threaded nut with a drive screw. The awning is extended by rotating the drive screw, which causes the nuts to travel along the drive screw causing the arms to push the bottom panel outwardly and the bottom panel to pull along any intermediate panels. The awning is retracted by rotating the drive screw in the opposite direction.

Abstract: A retractable rigid window awning includes a number of U-shaped panels pivotally attached to a building on the sides of a window. In the retracted position, the panels are disposed above the window, in tiers. Each panel has a pair of actuators that enable its extension and retraction. Each actuator is attached to the panel at one end and to a movable nut at the other end via articulated joints. The nuts are installed on a driving screw attached to the building. The awning is extended by rotating the screw, which causes the nuts to travel along the screw. The actuators push their respective panels out and tilt them down. Depending on the length of actuators, panels travel different distances from the building creating a continuous shade over the window. The awning is retracted by rotating the screw in the opposite direction.

Abstract: A sunshade for mounting to a building structure has first and second extruded outriggers spaced apart from each other and louvers extending from the first outrigger to the second outrigger. The first and second outriggers have an elongated body, an upper leg extending from an upper portion of the elongated body, and a lower leg extending from a lower portion of the elongated body. The outriggers of adjacent sunshades face each other such that the upper legs face each other and the lower legs face each other. A pocket is formed between the adjacent outriggers. The outriggers also have a mounting notch at an end which is mounted to the building structure. The outrigger notch engages a hook on a sunshade anchor mounted to the building structure.

Abstract: A wind-resistant awning is disclosed. The awning includes a backing which allows wind to flow through it, such as a mesh netting or screen backing. A plurality of flaps are attached at one edge only to the backing. The flaps are preferably horizontally aligned in parallel and overlap one another. The flaps are closed when the wind level is low. In the event a potentially harmful gust of wind presents itself, a free end of the flaps opens such that the force of the wind goes through the backing and does not damage the awning. The flaps are preferably weather resistant. Optionally, the flaps may have weak attachment means such as hook and loop fasteners to keep the flaps attached to the backing under normal conditions. The awning can be used in multiple settings and may be retractable.

Abstract: A mounting bracket to be used in connection with securing sunshades to a wall mullion. The mounting bracket including a pair of bracket elements matingly engageable with each other with one bracket element being securable to one mounting arm of one of the sunshades and the other bracket element being securable to one mounting arm of an other of the sunshades and with each bracket element being removably securable to the mullion, such that each bracket element is disengageable from the other bracket and removable from the mullion. A plurality of the mounting brackets may be used to secure a plurality of the sunshades in a side-by-side manner to a plurality of wall mullions.

Abstract: A awning control circuit and assembly including an ambient thermistor and a heated thermistor for sensing wind speed. A microprocessor determines the present wind speed by referencing values of the thermistors to a stored lookup table. When the wind speed meets or exceeds a threshold value, the microprocessor causes one or more awnings to retract.

Abstract: The present invention provides a removably securable blind or awning having solar modules for converting solar energy into another energy form. The awning has an electrolyzer and fuel cells, or a reformer and fuel cells, for additional storage of that surplus energy produced by the solar modules for which the customarily provided storage elements lack sufficient storage capacity. Hydrogen and oxygen tanks, electrolyzers, reformers, and fuel cells can be disposed by appropriate measures in the available space in and/or on the frame body of the awnings such that space outside of the awnings for such items need only be found on an exception basis. The storage and release from storage of energy is regulated by a bus system. Water from one of a number of different sources can be conducted to the electrolyzer via guide drains mounted on the awnings and/or via other assemblies.

Abstract: A shielding canopy includes a fixture base mounted to a wall. A plurality of swiveling devices mounted to and equally-spaced along the fixture base. Each swiveling device rotatably supports a rotating shaft to which a panel of a predetermined width is fixed. The width of the panels substantially corresponds to a distance between adjacent swiveling devices whereby when the panels are rotated from a collapsed position where the panels substantially overlap each other to an expanded position, edges of the panels engage with each other whereby the panels together form a continuous canopy. A driving rod, actuated manually or by power, is movably supported in the fixture base. A plurality of connecting arms are pivoted to the driving rod and have free ends fixed to the rotating shafts thereby when the driving rod is moved, the panels are rotated.

Abstract: A retractable awning and support structure to be installed as a cover for a ceremonial Jewish structure known as a Sukkah. The awning is fabricated from a rigid plastic material and formed in an accordion like structure. The awning is connected to a support structure that is attached to the Sukkah.

Abstract: A system establishing a leak resistant connection between a retractable awning and a support surface includes an elongated slat with male and female connection elements along opposite longitudinal edges, and an intermediate downwardly extending trough portion between the longitudinal edges to catch and drain water laterally away from the retractable awning.

Abstract: The present invention is a portable two-way awning for use with recreational type trailer vehicles. The awning is comprised of a number of roof panels made with two sheets of aluminum surrounding a polystyrene core. A hanger mechanism is bonded to each of the panels, and suspends them on an adapter rail that slidingly engages with a standard awning attachment rail. The roof panels mate together via a number of interlocking members disposed on their mating sides. The outer periphery of the roof assembly is surrounded with a number of extrusion members. Once the roof assembly is pivoted to a nearly horizontal position, it is supported at its front end by a number of adjustable height poles, two of which swing freely into a vertical position when the roof is initially erected. The awning requires no tools or caulking to set-up, and takes less than thirty minutes to either erect or dismantle. The awning is relatively light in weight, yet strong enough to withstand the harshest of weather conditions.