mhurhangee/ep-ind-claims huggingface dataset:
A pair of bonded substrates, comprising: a first substrate of a first material; a second substrate of the first material; and an adhesive bonding the first substrate to the second substrate, wherein the adhesive has compatibilizing chemically linked particles compatible with the first and second substrates; wherein the first material consists of carbon fiber reinforced polymer (CFRP) and the particles consist of one of either graphene oxide functionalized particles or graphene functionalized particles; or wherein the first material consists of aluminum and the particles consist of aluminum oxide; or wherein the first material consists of titanium and the particles consist of titanium oxide; or wherein the first material consists of magnesium and the particles consist of magnesium oxide. a first substrate of a first material; a second substrate of the first material; and an adhesive bonding the first substrate to the second substrate, wherein the adhesive has compatibilizing chemically linked particles compatible with the first and second substrates; wherein the first material consists of carbon fiber reinforced polymer (CFRP) and the particles consist of one of either graphene oxide functionalized particles or graphene functionalized particles; or wherein the first material consists of aluminum and the particles consist of aluminum oxide; or wherein the first material consists of titanium and the particles consist of titanium oxide; or wherein the first material consists of magnesium and the particles consist of magnesium oxide.
Optoelectronic sensor device for a motor vehicle for capturing objects situated in surroundings of the motor vehicle, with a transmission unit for emitting an optical transmission beam and with a reception unit for receiving a reception beam, which is the transmission beam reflected by an object, wherein the reception unit has at least two reception elements, in particular photodiodes, that are arranged distributed along a distribution direction, in each case for receiving the reception beam, and a reception optical unit which, in a reception beam path, is arranged upstream of the reception elements in the propagation direction of the reception beam, characterized in that the reception optical unit has respective optical elements for the at least two reception elements, said optical elements being embodied to deflect the reception beam onto the respectively assigned reception element, wherein a first of the optical elements is embodied to deflect a reception beam that is incident from a first vertical angle in respect of a horizontal plane onto the assigned reception element and a second of the optical elements is embodied to deflect a reception beam that is incident from a second vertical angle, different from the first vertical angle, in respect of the horizontal plane onto the assigned reception element and the first optical element is arranged at a first inclination in respect of the horizontal plane for the purposes of deflecting the reception beam onto the assigned reception element and the second optical element is arranged at an inclination, differing from the first inclination, in respect of the horizontal plane for the purposes of deflecting the reception beam onto the assigned reception element.
A motor vehicle comprising: • a first running gear and a second running gear, each running gear (10, 20) supporting the vehicle and comprising an individual input member (13, 23) for driving said running gear (10, 20) when said input member (13, 23) is rotated, and • a transmission (50; 150), which is configured to mutually secure in rotation the input member of the first running gear and the input member of the second running gear; wherein: • the motor vehicle comprises a first power unit, associated with the first running gear, and a second power unit, associated with the second running gear, each power unit (30, 40) comprising an individual motor (31, 41); and • the transmission (50; 150) is configured to adopt alternately: ◆ a synchronisation configuration, in which the transmission (50; 150) mutually secures in rotation the input member of the first running gear and the input member of the second running gear; and ◆ a desynchronisation configuration, in which the transmission (50; 150) releases the input member of the first running gear and the input member of the second running gear to rotate freely relative to one another; characterised in that each power unit (30, 40) comprises an individual gearbox (32, 42), the gearbox (32, 42) being configured to mutually secure in rotation the motor (31, 41) of said power unit (30, 40) and the input member (13, 23) of the running gear (10, 20) with which said power unit (30, 40) is associated. • a first running gear and a second running gear, each running gear (10, 20) supporting the vehicle and comprising an individual input member (13, 23) for driving said running gear (10, 20) when said input member (13, 23) is rotated, and • a transmission (50; 150), which is configured to mutually secure in rotation the input member of the first running gear and the input member of the second running gear; wherein: • the motor vehicle comprises a first power unit, associated with the first running gear, and a second power unit, associated with the second running gear, each power unit (30, 40) comprising an individual motor (31, 41); and • the transmission (50; 150) is configured to adopt alternately: ◆ a synchronisation configuration, in which the transmission (50; 150) mutually secures in rotation the input member of the first running gear and the input member of the second running gear; and ◆ a desynchronisation configuration, in which the transmission (50; 150) releases the input member of the first running gear and the input member of the second running gear to rotate freely relative to one another; ◆ a synchronisation configuration, in which the transmission (50; 150) mutually secures in rotation the input member of the first running gear and the input member of the second running gear; and ◆ a desynchronisation configuration, in which the transmission (50; 150) releases the input member of the first running gear and the input member of the second running gear to rotate freely relative to one another;
A sulfonic acid salt composition comprising compounds of formula wherein n is 1 or 2, R 1 is H or C 1 -C 6 alkyl, R 2 is COOM, SO 3 M or CH SO 2 -OM, each M is an equivalent of a multivalent metal, and the molar ratio of a compound wherein n is 1 to a compound wherein n is 2 is below 0.1. n is 1 or 2, R 1 is H or C 1 -C 6 alkyl, R 2 is COOM, SO 3 M or CH SO 2 -OM, each M is an equivalent of a multivalent metal, and the molar ratio of a compound wherein n is 1 to a compound wherein n is 2 is below 0.1.
A boot clamping structure for a constant velocity joint for fastening both ends of a boot respectively using a clamp comprising a main pressing portion (121, 221) that is provided to be protruded in a first direction toward the boot on an inner circumferential surface of the clamp, characterized in that the boot clamping structure further comprises an auxiliary pressing portion that is provided to be protruded in a second direction toward the clamp on an outer circumferential surface of the boot, wherein the auxiliary pressing portion comprises a plurality of auxiliary pressing protrusions that are disposed at intervals along an outer circumferential surface of the boot. the boot clamping structure further comprises an auxiliary pressing portion that is provided to be protruded in a second direction toward the clamp on an outer circumferential surface of the boot, wherein the auxiliary pressing portion comprises a plurality of auxiliary pressing protrusions that are disposed at intervals along an outer circumferential surface of the boot.
A nacelle having an inlet, an outlet, and a longitudinal axis extending therebetween, the nacelle comprising: a first cowling at least partially defining the inlet and at least partially defining the outlet, the first cowling comprising a unitary portion that extends from the inlet to the outlet; a second cowling at least partially defining the outlet, the second cowling being configured to translate relative to the first cowling; characterised in that the said nacelle further comprises a third cowling at least partially defining the inlet, the first cowling and the third cowling abutting one another along a first split and a second split. a first cowling at least partially defining the inlet and at least partially defining the outlet, the first cowling comprising a unitary portion that extends from the inlet to the outlet; a second cowling at least partially defining the outlet, the second cowling being configured to translate relative to the first cowling; characterised in that the said nacelle further comprises a third cowling at least partially defining the inlet, the first cowling and the third cowling abutting one another along a first split and a second split.
A data transmission method for direct communication, wherein the direct communication is a direct communication scenario for a first terminal based on scheduling of an access network device, and the method comprises: transmitting, by the first terminal, sidelink data to a second terminal through a sidelink according to downlink control information, DCI, transmitted by the access network device; receiving, by the first terminal, sidelink hybrid auto repeat request, HARQ, feedback information from the second terminal, in a second time-frequency resource through a physical sidelink feedback channel, PSFCH, the sidelink HARQ feedback information being configured to indicate a reception state corresponding to the sidelink data; and reporting, by the first terminal, the sidelink HARQ feedback information to the access network device in a first time-frequency resource through a physical uplink control channel, PUCCH; wherein the first time-frequency resource comprises a PUCCH resource mapped according to a third time-frequency resource used for transmitting the DCI; and the second time-frequency resource comprises a PSFCH resource mapped by the second terminal according to a fourth time-frequency resource used for transmitting the sidelink data. transmitting, by the first terminal, sidelink data to a second terminal through a sidelink according to downlink control information, DCI, transmitted by the access network device; receiving, by the first terminal, sidelink hybrid auto repeat request, HARQ, feedback information from the second terminal, in a second time-frequency resource through a physical sidelink feedback channel, PSFCH, the sidelink HARQ feedback information being configured to indicate a reception state corresponding to the sidelink data; and reporting, by the first terminal, the sidelink HARQ feedback information to the access network device in a first time-frequency resource through a physical uplink control channel, PUCCH; wherein the first time-frequency resource comprises a PUCCH resource mapped according to a third time-frequency resource used for transmitting the DCI; and the second time-frequency resource comprises a PSFCH resource mapped by the second terminal according to a fourth time-frequency resource used for transmitting the sidelink data.
A method for controlling an implantable medical device, IMD, comprising: receiving at the IMD a first instruction to cause the IMD to enter a protective mode, wherein in the protective mode the IMD is enabled to execute one or more protective measures to protect the IMD from a first field produced by equipment; while in the protective mode, receiving at the IMD a second instruction to cause the IMD to enter a pairing mode, wherein the pairing mode enables the IMD to pair for communications with an external device; while in the protective mode and the pairing mode, receiving at the IMD, from a first external device, a third instruction to cause the IMD and the first external device to pair for communications; and while in the protective mode, receiving at the IMD, from the first external device, a fourth instruction to cause the IMD to exit the protective mode. receiving at the IMD a first instruction to cause the IMD to enter a protective mode, wherein in the protective mode the IMD is enabled to execute one or more protective measures to protect the IMD from a first field produced by equipment; while in the protective mode, receiving at the IMD a second instruction to cause the IMD to enter a pairing mode, wherein the pairing mode enables the IMD to pair for communications with an external device; while in the protective mode and the pairing mode, receiving at the IMD, from a first external device, a third instruction to cause the IMD and the first external device to pair for communications; and while in the protective mode, receiving at the IMD, from the first external device, a fourth instruction to cause the IMD to exit the protective mode.
Wall-mounted cabinet body assembled in endless construction from - a plurality of rectangular body side walls (3a, 3b, 3c) made of metal and each having, at the top of their rear side, an open-bottom hanging recess and, on both sides, holes, - at least one assembly rail, in particular profile rail, made of metal for horizontal mounting on a wall and having a first rail portion for butting against, and mounting on, the wall and a free rail portion for suspending the hanging recess of the body side walls (3a, 3b, 3c), the free rail portion running parallel to, and at a distance from, the first rail portion, and - a plurality of crossmembers (7a, 7b) made of metal for fastening in each case between two body side walls (3a, 3b, 3c), wherein the assembly rail can be mounted on the wall horizontally with the free rail portion upwards, wherein the vertically oriented body side walls (3a, 3b, 3c), on the one hand, are suspended at their rear side, by way of their open-bottom hanging recess, in the free rail portion of the assembly rail and, on the other hand, rest on the floor in each case by way of at least one adjustable foot, which is fastened exclusively on the underside of a front crossmember or on the underside of the front lower corners of the body side wall (3a, 3b), and wherein in each case at least one crossmember (7a, 7b) is fastened at the top and bottom between two body side walls (3a, 3b, 3c). - a plurality of rectangular body side walls (3a, 3b, 3c) made of metal and each having, at the top of their rear side, an open-bottom hanging recess and, on both sides, holes, - at least one assembly rail, in particular profile rail, made of metal for horizontal mounting on a wall and having a first rail portion for butting against, and mounting on, the wall and a free rail portion for suspending the hanging recess of the body side walls (3a, 3b, 3c), the free rail portion running parallel to, and at a distance from, the first rail portion, and - a plurality of crossmembers (7a, 7b) made of metal for fastening in each case between two body side walls (3a, 3b, 3c),
A cooling unit for cooling a supercomputer which has heat sinks of semiconductor chips in a coolant fluid circuit of the supercomputer, which heat sinks have fine ridging or microfins or microchannels, the cooling unit comprising a coolant fluid pathway in which there is (a) a centrifugal pump which serves to pump a coolant fluid along the pathway when the unit is in use, and (b) a heat exchanger which serves to cool the coolant fluid which is thus pumped along the pathway, the cooling unit being connectable in the said coolant fluid circuit of the supercomputer, in which the pump has a housing having an inlet for the coolant fluid, a rotor constituted by a magnetically driven impeller which is provided with at least one magnet and which is enclosed within the housing and a stator outside the housing and provided with at least one electromagnet operable to act on the said at least one magnet to rotate the impeller, whereby the impeller is magnetically contactlessly driven and is magnetically levitated so that it is not in contact with any of the walls of the housing and when it rotates it does so contactlessly, the unit further comprises a particle filter comprising a cylindrical perforated wall surrounded by a mesh through which the coolant fluid flows when the unit is in use and which has a hole size configured to remove from the coolant fluid particles which may cause blockage or damage to the fine ridging or microfins or microchannels of the heat sinks, and an outlet of the filter is so attached to the pump that the inlet of the housing of the pump is in direct fluid communication with the interior of the cylindrical perforated wall of the filter.
Pressure supply device for prioritised volume flow distribution, particularly in mobile machinery, consisting of at least - one variable displacement pump, which can be controlled by an LS signal, as a main pump, - one fixed displacement pump as an auxiliary pump, - two pressure compensators (DW1, DW2), - one system to be supplied as a primary system, especially in the form of a hydraulic steering system, which issues an LS signal, one system to be supplied as a secondary system, which issues a further LS signal, especially in the form of a hydraulic operating system, and - a further system to be supplied by hydraulic means, especially in the form of a hydraulic braking system, wherein one pressure compensator is used to supply the system to be supplied as the primary system and/or the further hydraulic system, the other pressure compensator is used to supply the system to be supplied as the primary system and/or the system to be supplied as the secondary system, and wherein the LS signal for the main pump originates from a shuttle valve, which compares the respective LS signals from the system to be supplied as the primary and secondary system, and passes on the LS signal with the higher pressure to the main pump to control said pump, characterised in that the main pump supplies the system to be supplied as the secondary system directly with hydraulic medium at a predefinable pressure and in that the respective pressure compensator (DW1, DW2) can be controlled by an LS signal such that the fixed displacement pump is also used to supply the system to be supplied as the secondary system. - one variable displacement pump, which can be controlled by an LS signal, as a main pump, - one fixed displacement pump as an auxiliary pump, - two pressure compensators (DW1, DW2), - one system to be supplied as a primary system, especially in the form of a hydraulic steering system, which issues an LS signal, one system to be supplied as a secondary system, which issues a further LS signal, especially in the form of a hydraulic operating system, and - a further system to be supplied by hydraulic means, especially in the form of a hydraulic braking system,
Dry ice container for dry ice cleaning devices comprising a container for dry ice closed by a lid on the upper side, and provided with an opening for drawing out dry ice pellets on the lower side, where the container has a bottom sloped towards the opening for drawing out the pellets, at which a linear-movable member is arranged, and a supply of auxiliary air which is discharged above the bottom of the container, wherein the linear-movable member is arranged in the chamber at the bottom of the container transversely to the axis of the container, characterised in that the member has the shape of a gutter in which groups of separated openings (5a, 5b, 5c) are provided, to which at least one pellets plowing element is placed in the member, each group of openings (5a, 5b, 5c) pertaining to one opening for drawing out the pellets, where the openings for drawing out the pellets are connected through a collector to an outlet of the pellets, the member being connected to the piston of a pneumatic cylinder, and the supply of auxiliary air above the bottom of the container being formed by a tubular body transversely extending through the container in the direction of the member, where the body is outside the container at one end and connected to a source of auxiliary air, while inside the container it is provided with at least one opening for the outlet of auxiliary air arranged against the bottom of the container, and on the other end outside the container it is provided with an opening for the outlet of residual auxiliary air.
An intestinal restriction device to facilitate weight loss, comprising a body configured for placement around a portion of an intestine of a human patient, said body movable between a first open configuration and a second closed or partially closed configuration, wherein in the closed or partially closed configuration the body is configured to reduce or limit localized intestinal distension, and wherein when in the closed configuration the body defines an inner diameter that corresponds to an outer diameter of the non-distended intestine or defines an inner diameter that is larger than the outer diameter of the non-distended intestine wherein the device is for application to a portion of the intestine of the patient selected from the group consisting of large intestine, duodenum, jejunum and ileum.
A method of forming a seal, the method comprising: preparing a froth from a one component polyurethane precursor; applying the froth to a surface of an article; and simultaneously applying water with the froth, the froth curing to form a gasket having a density not greater than 350 kg/m 3 bonded to the article. preparing a froth from a one component polyurethane precursor; applying the froth to a surface of an article; and simultaneously applying water with the froth, the froth curing to form a gasket having a density not greater than 350 kg/m 3 bonded to the article.
Diaphragm circulator for a flowable material, comprising a circulator body wherein an internal circuit is arranged, which has at least one inlet port for the material, one propulsion chamber and at least one discharge port for this material, the propulsion chamber having rigid walls (9, 10) between which a deformable diaphragm is placed, with one edge adjacent to the inlet port and one edge adjacent to the discharge port, the diaphragm forming the support for a ripple, while a reciprocating mechanical excitation device for the diaphragm is connected to the diaphragm on the inlet port side, in order to transmit mechanical energy generating said ripple to the corresponding edge of the diaphragm, characterised in that the rigid walls (9; 10) of the circulator are arranged inside of envelope surfaces (7; 8) of the free amplitude of the ripple propagating along the diaphragm, and in that the diaphragm is associated, via at least one of the edges thereof, with means having the effect of creating tension (6a; 6b) in the diaphragm, at least during generation of the ripple, whereby, during operation, this prevailing tension in the diaphragm is variable between an upper value on the discharge port side and a lower value on the inlet port side.