Abstract:
To provide a mechanism (20) for reciprocating cleaning apparatuses, consisting of three mechanism: A reciprocating mechanism (21) consisting of two springs (25) connected in-between a telescopic shaft (26), and base (27), a driven cam (28) pushes vertically up the telescopic shaft (26) of the cleaner head (23), while the two springs (25) retard it down. A wiping mechanism consisting of a wiper (30), a wiper's frame (32), a double support arms, a double arced handles (33), and a retard spring, the mechanism is moving independently from the cleaner head (23), and operated manually, such that the wiper (30) is moved down in- between the facade and the cleaner head (23) to cwipe the last wet cleaned part, meanwhile the cleaner head is passing through the wiper's frame (32) without hitting it. The safety/stop mechanism consists of a tilt rod (38) sensor, such that once it hits a protrusion, it tilts up to actuate a switch (39) to send data to a control unit, to stop cleaning, and descending the apparatus.
Abstract:
A washing machine (20), carrying out rinsing/drying of multiple types of laundry, either in multiple basins (23), created by installing a divider (21) inside the main basket (22), or rinsing/drying one type of these, in the same machine, by simply removing the divider (21). The original basket (22) has a main agitator (27), while the created secondary basins (23), have separate agitators (33); located over the main agitator (27), in-between its blades. A motor (42) drives a main shaft (43), to drive the main agitator (27), while a main sprocket (45) installed on the main shaft (43), drives the secondary sprockets (46), which are installed on the secondary shafts (44), to drive the secondary agitators (33). A hydraulic cylinders piston-rods set (50), (51), moves up/down the base of the motor, to move up/down the main shaft (43), to engage or disengage from the main agitator (27), while a single hydraulic cylinder piston-rod (60), is pushing up the secondary shafts carrier (47), to engage them with the secondary agitators (33). Springs set retard the carrier (47) down.
Abstract:
To provide a time, fluid, and labor saving, glass cleaner apparatus (20), that is further effective and safe, depending mainly on a two motorized cleaning devices, built-in a cage (21) carrying one to two workers, the cage (21) is suspended, and moving up/down, or sideways opposite to the glass to be cleaned. The motorized cleaning device, is installed inside a moveable housing (30), moving on four wheels, forward toward a deep glass (surface) in the facade, or retarded backward for cleaning a protrusing facade glass (surface). The motorized device consists of a motor (29), installed on a base plate, to drive the rotation of a camshaft (28), which is in touch with the rear end of a telescopic shaft (26), that moves up/down, and as a result creating an up/down reciprocating movement of a cleaning brush (22), installed at its front end, a rinse/compress/drain option is also provided.
Abstract:
To provide a motorized cleaning apparatus (20), that is manually effective in adjusting the horizontal destance of a rotatable brush (21) from a facade according to its variable protrusions details. On each of the the right and left hands of a worker supporting chair, rails (24) are installed, supporting from the back balance blocks, and supporting from their top sides two slideable beams (26), holding a motor housing, which is linked from its front side to an intermediate shaft (30) via a supporting frame (31), a belt installed on a drive gear from the motor side drives the intermediate shaft (30), which is driving via its end gears the brush's shaft (39), using two toothed belts. To support the brush (21), its shaft is linked from its both ends to the intermediate shaft (30) through a two U-shaped joints (40), which are inserted inside the ends of the intermediate shaft (30) and the brush's shaft (39), wherein carrier bearings are installed in-between them.
Abstract:
To provide drones service aero-carrier (20), a big drone (20) is carrying and supporting two levels of trays (21), (22), each tray is divided into many compartments, where a loaded mini drone (24) or parcels (25) are to be located. The aero-carrier is connected to the trays (21), (22) from its bottom center via a telescopic shaft (26), which is welded to the top tray (21), and penetrating it toward the lower tray (22), where it is welded to it too. Trays space (gap) adjustment mechanism is provided too, depending on a motor, pulleys, and strings, to pull up the trays (21), (22) with the telescopic shaft (26) to hold the mini drones, or parcels while in flight, or to let the trays (21), (22) move down to expand the gap to the mini drones to be released out while unloading the aero-carrier (20).
Abstract:
To provide an autonomous ground station (20) for interfacing aerial delivery, which handles autonomously the reception of a smart parcel box (21) from a drone (22), then delivering each content in each sub-parcel to a specific person, and returning back the empty smart parcels to the drone (22). The station (20) is made of many empty coupled in-out columns (30) opened to receive boxes (21) from drones to move inside the machine (20), wherein each box (21) is made of cells (24), containing sub-parcels, to be delivered via a mini-gate (25), that is actuated after entering the sub-parcel code to the machine (20) via a data entry system (38). The boxes are moved through the station (20) from the inlet downward under gravity, and then depending on hydraulically piston supported plates (40), (41) it is pushed to the exit column (32), and then out to be collected via the drone 22).
Abstract:
To provide drones service aero-carrier (20), a big drone (20) is carrying and supporting two levels of trays (21), (22), each tray is divided into many compartments, where a loaded mini drone (24) or parcels (25) are to be located. The aero-carrier is connected to the trays (21), (22) from its bottom center via a telescopic shaft (26), which is welded to the top tray (21), and penetrating it toward the lower tray (22), where it is welded to it too. Trays space (gap) adjustment mechanism is provided too, depending on a motor, pulleys, and strings, to pull up the trays (21), (22) with the telescopic shaft (26) to hold the mini drones, or parcels while in flight, or to let the trays (21), (22) move down to expand the gap to the mini drones to be released out while unloading the aero-carrier (20).
Abstract:
To provide a single entry, one trip, compact drill pipe fishing apparatus (20), it consists of a cylindrical housing (21), supporting the inner tools and mechanisms; a rotatable spindle (23) is penetrating its top cap (24), and driving the inner mechanisms. The cap (24) is rotating the housing (21), while moving downward, there is two sets of keys (32), distributed through bores made horizontally inside the housing (21) body, then, syringe type lubricant tools are installed through bores made in the housing (21) body, then, in the bottom part of the housing (21), an inner cylindrical cutting block (40) is installed, with four cutting outlets bores, made via the housing (21) body, finally three cameras are installed. The fishing operation starts by cutting two sets of holes in the drill pipe (fish) (22), lubricating the holes, engaging the keys, pushing the fish right/left, and up/down via the engaged keys (32), to penetrate the oil, and pulling up the fish (22).
Abstract:
To provide a portable, compact, and cheap motorized Book Scanner (20), with automatic pages turn over feature to scan books of moderate size and thickness. The scanner is compromised mainly from a housing (22) and inner enclosed parts: a scan head (29), electric motor (30), set of gears to transfer the motor shaft (31) rotation to drive two side wheels (27) to create a movement of the scanner (20) over the book pages, and to drive the rotation of the dual-rotating cams (23) that are used to start flipping a book page, while the tapered front lower part (40) of the scanner housing (22), assists in completing the turnover of each page. The device starts by turning a page over in front of its front side, while the scan head (29) start scanning the flat pages, then the motor (30) reverses its rotation, as a result, the scanner (20) moves back, but without scanning or turning over of pages.
Abstract:
To provide an effective, safe, time and labor saving aeropotic glass cleaner (15) apparatus, depending mainly on a top-wing (21) mini-aircraft (16) moving up/down opposite to the target glass. Three apparatuses (15) stored in each cabover truck (18) container, which includes also the fluid supply tank, fluid pump, and batteries (26), in addition to a control pannel, in the truck cabin, to monitor/control remotely the cleaning process. It further consists of a water distribution block (50) on the ground, 2-way motor (53) with pulleys releasing the fluid hoses and the electric/data cable to the mini-aircraft (16), toproof mounted U-shaped frame (41) with 2-way motor (38), and pulleys for releasing the safety ropes to the mini-aircraft (16), a reciprocating cleaning brush (23) with rinse/compress mechanism, cameras, distance sensors, wind meter, speed sensors, cotrol unit (55).. all to control the cleaning process of the apparatus (15) which is capable to clean facades with protruded vertical parts, curving inwards or outwards.