2707results about "Manual conveyance devices" patented technology

A grasp assist device includes a glove portion having phalange rings, contact sensors for measuring a grasping force applied by an operator wearing the glove portion, and a tendon drive system (TDS). The device has flexible tendons connected to the phalange rings for moving the rings in response to feedback signals from the sensors. The TDS is connected to each of the tendons, and applies an augmenting tensile force thereto via a microcontroller adapted for determining the augmenting tensile force as a function of the grasping force. A method of augmenting a grasping force of an operator includes measuring the grasping force using the sensors, encoding the grasping force as the feedback signals, and calculating the augmenting tensile force as a function of the feedback signals using the microcontroller. The method includes energizing at least one actuator of a tendon drive system (TDS) to thereby apply the augmenting tensile force.

An early warning system for a tractor operator engaged in towing or pushing an aircraft includes two ultrasonic sensors that are used to create a detection area in which the aircraft should be present when the steering angle is well within a safe range. When one of the detectors fails to detect the presence of the aircraft, then the operator is alerted, before over steering can occur, in order that corrective action can be undertaken. Accordingly, complex distance-measuring algorithms can be avoided as can the requirement that an aircraft fuselage have a specially modified detection region.

Hairdressing tongs have a pair of arms extending from handles. Each arm has a heating pad affixed thereto. The handles have opposed openings. A central element is positioned between the handles and fitted within the openings such that the central element is slidable toward the handles. The central element has guide openings. Springs are positioned in the guide openings for biasing apart the handles. The springs enable hand pressure to move the handles and arms together from a completely open position to a completely closed position and, in absence of the hand pressure, to maintain the handles and arms in relatively parallel configuration, biased against stops of the central element.

While periphery or peripheries of workpiece(s) W lifted in floating fashion by simultaneous suction and expulsion of gas(es) between pair(s) of first and second, or upper and lower, transport stages 14, 15 is/are retained by plurality of elevator pins 16, respective transport stage(s) is/are inverted vertically and workpiece(s) is/are transferred from upper first transport stage(s) to lower second transport stage(s) such that workpiece(s) W is/are lifted in floating fashion thereabove by simultaneous suction and expulsion of gas(es) in accompaniment to lowering of respective elevator pin(s) at said first transport stage(s).

A shell case for use with a pad style computer can have a rotating disc at its bottom. This disc can have a strap which connects to a user's hand to allow the user to rotate and/or hold the computer at a desired position with one hand, thereby allowing the other hand to do other things, such as type on the keypad. Meanwhile the holding hand does not quickly tire out as it is not typically grasping the computer as would often occur without the use of a case.

A bucket lifting apparatus includes a bucket that has a bottom wall and a peripheral wall. A coupler includes a post. A lower handle is attached to the post. A plurality of arms each has a first end and second end. Each of the first ends is attached to the post. Each of the first and second lateral sides has at least one arm attached thereto. Each of the arms is arcuate. At least one loop is attached to one of the second ends. At least one strap is attached to one of the second ends. The at least one strap has a free end is removably extendable through the at least one loop. The peripheral wall of the bucket is abutted against the arms and the straps are extended around the bucket. The straps are extended through the loops and the bucket is lifted with the coupler.

The present invention generally relates to a holding device for a phone or other electronic device. The device has an exterior housing and a generally hollow interior. The back of the exterior housing has a plurality of finger receiving finger loops which pivot from a generally parallel position with respect to the back of the device to a generally perpendicular position with respect to the back of the device. The finger loops may move independently and be independently added or removed from the device.

A method and an apparatus for automatically removing pieces of luggage that have different surface properties and dimensions and getting the pieces of luggage ready for further transport by means of a gripper that is hingedly connected to a robot arm is described. The method includes: a) moving the gripper and the container that is to be emptied close together; b) determining the first piece of luggage to be removed; (c) gripping the piece of luggage using a horizontal suction elements (3) and withdrawing the luggage horizontally; d) if the vertical suction elements (4) are not yet able to sufficiently grip the luggage, the vertical suction elements (4) are repositioned and turned off, the vertical suction elements (5) are repositioned, and then turned on to re-grip the piece of luggage.

A transfer device includes an upper mechanism and a lower mechanism associated with the upper mechanism. The upper mechanism includes a first endless belt that circulates in forward and reverse directions. The lower mechanism includes a second endless belt that circulates in forward and reverse directions independently of the first endless belt. The first and the second endless belts are selectively brought into and out of engagement with each other.

A transfer device includes a lower mechanism and an upper mechanism stacked on the lower mechanism. The lower mechanism includes a first endless belt, and the upper mechanism includes a second endless belt. The first and the second endless belts are operable independently of each other for forward and backward circulation. The first endless belt is driven by a first driving unit disposed at one end of the lower mechanism as viewed in the traveling direction of the first endless belt. The second endless belt is driven by a second driving unit disposed at one end of the upper mechanism as viewed in the traveling direction of the second endless belt. A plurality of transfer devices connected in their widthwise direction constitute a transfer device assembly.

A substrate holder positioning method, capable of positioning a substrate holder without using any positioning jig, includes: measuring a first position of a substrate held on a substrate holder included in a substrate carrying mechanism; carrying the substrate held on the substrate holder to a substrate rotating unit for holding and rotating the substrate; turning the substrate held by the substrate rotating unit through a predetermined angle by the substrate rotating unit; transferring the substrate turned by the substrate rotating unit from the substrate rotating unit to the substrate holder; measuring a second position of the substrate transferred from the substrate rotating unit to the substrate holder; determining the position of the center of rotation of the substrate rotating unit on the basis of the first and the second position; and positioning the substrate holder on the basis of the position of the center of rotation.

A lift apparatus for conveying, lifting and at least partially inverting a refuse container for emptying into a dumpster or a refuse receptacle. The apparatus preferably has a base with wheels and a handle to facilitate transport. In one embodiment, the handle telescopes vertically and is hook shaped and adapted for engaging the lip of a dumpster or garbage chute. A pair of offset pivot arms is pivotally mounted to the frame and to a bin carriage, into which a refuse receptacle may be received. Application of a pivoting force to the pivot arms lifts and at least partially inverts the bin carriage for emptying the refuse container. Preferably a damper is provided on bin carriage movement as well as a locking mechanism to prevent bin carriage movement while being conveyed. The device may be operated manually, or adapted with mechanical power output devices to simplify lifting.

An aircraft handler (10) for use with an undercarriage of an aircraft, the handler being self-propelled and comprising a generally “U” shaped body (11) having arms (12 &13) linked by a bridge (14) at one end thereof with a pair of drive wheels (16 &17) located one at the free end of each arm, with at least one wheel(15) located adjacent the bridge(14). A pair of clamping jaws (51) are mounted on the body (11) between the drive wheels (16 &17) and the bridge (14)and jaws (51) have a lower profile than the arms (12 &17). The drive wheel (16 &17) are driven by DC electric motors powered by batteries stored in the arms.

A convertible wheelchair is provided along with a separable lift module for engaging and elevating the convertible wheelchair to a selected elevation. A coupling assembly is operative associated with the lift module and adapted to extend therefrom to where the coupling assembly attaches to the convertible wheelchair. In one embodiment, the coupling assembly comprises a three-point attachment that results in the wheelchair being connected to the coupling assembly and hence the separable lift system at three points. Once coupled to the lift system, the convertible wheelchair, with a patient supported therein, can be raised to a selected elevation. Thereafter, the wheelchair can be converted from a chair configuration to any one of several examination configurations.

A dolly is particularly adapted to lift, support and maneuver a four-wheel vehicle. The dolly comprises an adjustable, generally U-shaped frame assembly for each vehicle tire. The frame assembly has pairs of reciprocally opposed first and second frame members adapted to be positioned adjacent opposite sides of a tire and to lift the vehicle by way of the tires. A castering wheel assembly supports the vehicle on a ground surface. The frame assembly is pivotably mounted on a tractor.

A wheel dolly is disclosed that is suited to serve as both an automobile jack, capable of holding large loads aloft for extended periods, relying on only mechanical systems and eliminating hydraulic systems. In a further aspect, the wheel dolly of the present invention does not include extended arms, handles, or levers for pumping or rotating the lifting mechanisms. Each lifting element terminates in only a single nut exposed to the user. Preferably, each nut of each lifting system has the same plan dimensions as the other, thus providing the advantage of allowing the user to operate the dolly with a driver and only one socket.

A strap or glove wraps around the palm and back of a wearer's hand. The wearer's thumb protrudes through a thumbhole in the strap or glove. A button snap fastener is secured to the strap or glove and mates with a complementary button snap fastener on a casing of a portable touch screen device to permit swivel of the portable touch screen device by 360 degree rotation about the palm of the wearer.

A conveyor system (4, 5) moves vertical poles (2) in an agricultural facility between a growing area (20) and a workstation (W). Each pole carries plant growing containers (3) at multiple levels (H1-H9). An irrigation reservoir (30) may be mounted atop each pole. Irrigation lines (31-33) from the reservoir may be individually metered (35) at each level to compensate for differing water pressure with height. Sensors (40) in the reservoir and at each level of the poles may provide a controller (36) with data input. The controller may impose different growing conditions in different areas of the facility, including vertically different grow areas (20A, 20B), and controls pole movements and locations selectively to provide a sequence of poles at the workstation ready to harvest on a demand schedule. The workstation may have multiple heights (W1, W2, W3) for tall poles that increase plant density per facility footprint.