mhurhangee/ep-ind-claims huggingface dataset:
A wheel brake arrangement (100, 100') for a wheel (12, 14) of a vehicle, the wheel brake arrangement comprising a brake pad arranged to be controllable between a first stage in which the brake pad is abutting to a brake disc for reducing the speed of the vehicle, and a second stage in which the brake pad is disconnected from the brake disc; and a carrier support connected to the brake pad for supporting the brake pad, wherein the wheel brake arrangement further comprising a resilient member (106, 106', 106") connected between the carrier and the brake pad, the resilient member (106, 106', 106") comprising a first portion (108, 108', 108") connected to a surface (110, 110', 110") extending in a radial and tangential direction of the brake pad and arranged to force the brake pad away from the brake disc when the brake pad assumes the second stage, and a second portion (112, 112', 112") connected between a radially inner surface of the brake pad and a portion (116, 116', 116") of the carrier, wherein the brake pad comprises a radially extending recess portion (120, 120', 120") in a surface of the brake pad arranged to face the brake disc, wherein the surface (110, 110', 110') extending in a radial and tangential direction of the brake pad is located in the recess portion (120, 120', 120"), characterized in that the carrier comprises a cavity (126, 126', 126"), wherein a mid-portion (128, 128', 128") of the resilient member is positioned in the cavity.
Metal heat exchange pipe for condensation of vapours having a pipe wall and having integrally formed ribs which extend on the outer pipe side and which have a rib base, rib flanks and a rib tip, wherein the rib base protrudes substantially radially from the pipe wall and the rib flanks are provided with additional structural elements which are constructed as material projections formed from material of the upper rib flank in the manner of a chip and which are arranged laterally on the rib flank, wherein the material projections have a plurality of boundary faces (41, 42), and wherein the boundary face of at least one material projection facing away from the pipe wall is curved in a convex manner, characterised in that the local radius of curvature of the convex boundary face decreases as the spacing from the rib flank increases.
A power steering device that assists a steering force applied to a steering wheel by a driver comprising: a worm wheel that is provided on a steering shaft linked to the steering wheel; a worm shaft that is engaged with the worm wheel and rotated by driving of an electric motor; a first bearing that rotatably supports a base-end side of the worm shaft; a second bearing that rotatably supports a tip-end side of the worm shaft; a gear case that houses the worm shaft; a biasing member that biases the worm shaft towards the worm wheel by exerting a biasing force on an outer circumferential surface of the second bearing; and an elastic member that is arranged between an inner circumferential surface of the gear case and the outer circumferential surface of the second bearing, the inner circumferential surface of the gear case that surrounds the outer circumferential surface of the second bearing is formed such that the second bearing can move towards the worm wheel by the biasing force of the biasing member, characterized in that the inner circumferential surface of the gear case is provided with a ring-like groove for housing the elastic member, and a center of the ring-like groove is provided so as to be offset towards the worm wheel side from a center axis of the worm shaft when the first bearing and the second bearing are in a coaxial state. a worm wheel that is provided on a steering shaft linked to the steering wheel; a worm shaft that is engaged with the worm wheel and rotated by driving of an electric motor; a first bearing that rotatably supports a base-end side of the worm shaft; a second bearing that rotatably supports a tip-end side of the worm shaft; a gear case that houses the worm shaft; a biasing member that biases the worm shaft towards the worm wheel by exerting a biasing force on an outer circumferential surface of the second bearing; and an elastic member that is arranged between an inner circumferential surface of the gear case and the outer circumferential surface of the second bearing, the inner circumferential surface of the gear case that surrounds the outer circumferential surface of the second bearing is formed such that the second bearing can move towards the worm wheel by the biasing force of the biasing member, characterized in that the inner circumferential surface of the gear case is provided with a ring-like groove for housing the elastic member, and a center of the ring-like groove is provided so as to be offset towards the worm wheel side from a center axis of the worm shaft when the first bearing and the second bearing are in a coaxial state.
An apparatus comprising: a quick response control code, QRCC, redirector module to identify a quick response, QR, image; a QR code module coupled with the QRCC redirector module, the QR code module to: identify, based on a QRCC tag in the QR image, a QRCC in the image; and identify a control command of the apparatus based on the QRCC; and a manageability engine coupled with the QR code module, the manageability engine to perform the control command, characterized in that the manageability engine is further to authenticate, using a security parameter of a QR code encryption algorithm, the QRCC. a quick response control code, QRCC, redirector module to identify a quick response, QR, image; a QR code module coupled with the QRCC redirector module, the QR code module to: identify, based on a QRCC tag in the QR image, a QRCC in the image; and identify a control command of the apparatus based on the QRCC; and identify, based on a QRCC tag in the QR image, a QRCC in the image; and identify a control command of the apparatus based on the QRCC; and a manageability engine coupled with the QR code module, the manageability engine to perform the control command, characterized in that the manageability engine is further to authenticate, using a security parameter of a QR code encryption algorithm, the QRCC.
A water disintegrable granular composition comprising: at least one agrochemical active, wherein the agrochemical active comprises any one of a water insoluble nutrient or an algae or a pesticidal active, in a concentration range of 0.1% to 95% by weight; and, at least one agrochemically acceptable excipient; wherein the water disintegrable granular composition is in a size range of 0.1 mm to 6 mm, comprising particles in a size range of from 0.1 μm to 50 μm; and, wherein the water disintegrable granular composition has a bulk density of less than 1.5 g/ml and a hardness of at least 1 Newton. at least one agrochemical active, wherein the agrochemical active comprises any one of a water insoluble nutrient or an algae or a pesticidal active, in a concentration range of 0.1% to 95% by weight; and, at least one agrochemically acceptable excipient; wherein the water disintegrable granular composition is in a size range of 0.1 mm to 6 mm, comprising particles in a size range of from 0.1 μm to 50 μm; and, wherein the water disintegrable granular composition has a bulk density of less than 1.5 g/ml and a hardness of at least 1 Newton.
A motor function evaluation device comprising: a measurement base; a load measurement unit configured to measure load change over time of a subject applied to the measurement base; and an arithmetic unit configured to determine a balance ability indicator of the subject determined by the load change over time measured by the load measurement unit, wherein the load change over time has a damped free vibration-like motion of load value in which increase and decrease of the load value relative to a body weight are repeated after the load value shows a maximum value as a first peak in a standing up motion of the subject and then the load value is stabilized, characterized in that the balance ability indicator is defined as a time period between a time of the first peak and a time of a stable point in the load change over time, wherein the time of the stable point is set, in the damped free vibration-like motion, as a time after a lapse of two cycles from the maximum value or a time where the load change over time has the same value as the body weight after the lapse of the two cycles from the maximum value. a measurement base; a load measurement unit configured to measure load change over time of a subject applied to the measurement base; and an arithmetic unit configured to determine a balance ability indicator of the subject determined by the load change over time measured by the load measurement unit, wherein the load change over time has a damped free vibration-like motion of load value in which increase and decrease of the load value relative to a body weight are repeated after the load value shows a maximum value as a first peak in a standing up motion of the subject and then the load value is stabilized, characterized in that the balance ability indicator is defined as a time period between a time of the first peak and a time of a stable point in the load change over time, wherein the time of the stable point is set, in the damped free vibration-like motion, as a time after a lapse of two cycles from the maximum value or a time where the load change over time has the same value as the body weight after the lapse of the two cycles from the maximum value.
A method for manufacturing a light emitting diode for light emission from a large surface, comprising the steps of; ∘ coating of a 1 mm thick glass substrate with chromium, ∘ growing of a p-type doped hydrogenated nanocrystalline silicon (nc-Si:H) layer on the chromium coated glass substrate by plasma enhanced chemical deposition (PECVD), ∘ without any interruptions in the PECVD process, only adjusting the chemical concentrations, the successive deposition of an undoped amorphous silicon nitride (a-SiN x:H) luminescent active region and an n-type doped nanocrystalline silicon (nc-Si:H) layer, ∘ after this structure is taken out of the PECVD reactor, coating of ITO (Indium tin oxide) as the window electrode through which the emitted light will be extracted, ∘ transformation of the fabricated pin LED by the application of 8V-14V forward bias voltage on the LED for a period of up to a few minutes such that saturation of the current density occurs. ∘ coating of a 1 mm thick glass substrate with chromium, ∘ growing of a p-type doped hydrogenated nanocrystalline silicon (nc-Si:H) layer on the chromium coated glass substrate by plasma enhanced chemical deposition (PECVD), ∘ without any interruptions in the PECVD process, only adjusting the chemical concentrations, the successive deposition of an undoped amorphous silicon nitride (a-SiN x:H) luminescent active region and an n-type doped nanocrystalline silicon (nc-Si:H) layer, ∘ after this structure is taken out of the PECVD reactor, coating of ITO (Indium tin oxide) as the window electrode through which the emitted light will be extracted, ∘ transformation of the fabricated pin LED by the application of 8V-14V forward bias voltage on the LED for a period of up to a few minutes such that saturation of the current density occurs.
Cutting assembly for an agricultural or forestry cutter, the cutting assembly comprising: a lower member and an upper member, which together form at least one finger guard extending along a longitudinal axis, wherein a blade gap is formed between the lower member and the upper member, and a knife, which is guided in a reciprocating manner in the blade gap in a drive direction transverse to the longitudinal axis, and which has at least one cutting edge, wherein the cutting edge has a lower cutting bevel facing the lower member and an upper cutting bevel facing the upper member, wherein the lower member is designed in two parts, wherein a guide member and a support together form the lower member, and wherein the guide member is arranged at least in sections between the support and the upper member, wherein the guide member has at least one lower abutment edge and the upper member has at least one upper abutment edge, past which the cutting edge is driven during the reciprocating movement of the knife, and wherein the upper abutment edge is serrated and the lower abutment edge is formed straight. a lower member and an upper member, which together form at least one finger guard extending along a longitudinal axis, wherein a blade gap is formed between the lower member and the upper member, and a knife, which is guided in a reciprocating manner in the blade gap in a drive direction transverse to the longitudinal axis, and which has at least one cutting edge, wherein the cutting edge has a lower cutting bevel facing the lower member and an upper cutting bevel facing the upper member, wherein the lower member is designed in two parts, wherein a guide member and a support together form the lower member, and wherein the guide member is arranged at least in sections between the support and the upper member, wherein the guide member has at least one lower abutment edge and the upper member has at least one upper abutment edge, past which the cutting edge is driven during the reciprocating movement of the knife, and wherein the upper abutment edge is serrated and the lower abutment edge is formed straight.
A pharmaceutical composition comprising (a) a hydroxy-derivative of atorvastatin or pharmaceutically acceptable salt thereof and (b) an oil comprising at least 95%, by weight, ethyl eicosapentaenoate or at least about 95%, by weight, ethyl docosahexaenoate.
A method of making a highly stable heavy hydrocarbon hydrodesulfurization catalyst, wherein said method comprises: co-mulling an inorganic oxide material, molybdenum trioxide in the form of finely divided particles, and a nickel compound to form a mixture, wherein the mixture contains less than 2 wt.%, based on the total weight of the mixture, of a molybdenum compound other than molybdenum trioxide, and wherein said co-mulling step is conducted such that said mixture has a pH that is maintained in the range of from 3 to 6; forming said mixture into a particle; and calcining said particle in the presence of an oxygen-containing fluid at a temperature of from 450°C to 760°C to provide a calcined mixture; wherein the amount of inorganic oxide material in the mixture is such as to provide for the calcined mixture to have an inorganic oxide material content of from 50 to 95 wt.%, based on the total weight of the calcined mixture; wherein the amount of molybdenum trioxide in the mixture is such as to provide for the calcined mixture to have a molybdenum content of up to 12 wt.% as metal (18 wt.% based on MoO 3), based on the total weight of the calcined mixture; and wherein the amount of nickel in the mixture is such as to provide for the calcined mixture to have a nickel content of up to 4 wt.% as metal (5.1 wt.% based on NiO), based on the total weight of the calcined mixture. co-mulling an inorganic oxide material, molybdenum trioxide in the form of finely divided particles, and a nickel compound to form a mixture, wherein the mixture contains less than 2 wt.%, based on the total weight of the mixture, of a molybdenum compound other than molybdenum trioxide, and wherein said co-mulling step is conducted such that said mixture has a pH that is maintained in the range of from 3 to 6; forming said mixture into a particle; and calcining said particle in the presence of an oxygen-containing fluid at a temperature of from 450°C to 760°C to provide a calcined mixture; wherein the amount of inorganic oxide material in the mixture is such as to provide for the calcined mixture to have an inorganic oxide material content of from 50 to 95 wt.%, based on the total weight of the calcined mixture; wherein the amount of molybdenum trioxide in the mixture is such as to provide for the calcined mixture to have a molybdenum content of up to 12 wt.% as metal (18 wt.% based on MoO 3), based on the total weight of the calcined mixture; and wherein the amount of nickel in the mixture is such as to provide for the calcined mixture to have a nickel content of up to 4 wt.% as metal (5.1 wt.% based on NiO), based on the total weight of the calcined mixture.
Method for the layered production of a green body (10; 60; 80) from powdery material (41; 61; 81), with cutting elements (42; 62, 63; 82) arranged in a defined manner and based on three-dimensional data of the green body (10; 60; 80), the green body (10; 60; 80) being segmented in a building direction into N (N ≥ 2) successive cylindrical cross-sectional regions (11, 12, 13, 14, 15) made up of a two-dimensional cross-sectional area perpendicular to the building direction and a layer thickness (d 1, d 2, d 3, d 4, d 5) parallel to the building direction, characterized by the method steps that: ■ the cross-sectional regions (11, 12, 13, 14, 15) of the green body (10; 60; 80) are respectively divided into material regions (17, 18, 21, 23, 25) produced from the powdery material (41; 61; 81) and setting regions (19, 22, 24), in which the cutting elements (42; 62, 63; 82) are arranged, ■ the material regions and setting regions of one cross-sectional region or the material regions (18, 21; 21, 23) and setting regions (19, 22; 22, 24) of multiple successive cross-sectional regions (12, 13, 14, 15) in the building direction are applied to a building plane (43; 64; 83), which is arranged perpendicularly to the building direction, until at least one cavity (26, 27) formed by one setting region or multiple successive setting regions (19, 22; 22, 24) in the building direction has in the building direction an insert height (h 1, h 2) required for arranging the cutting elements (42; 62, 63; 82), wherein, after applying a cross-sectional region, a layer of adhesive is applied in the material region of the cross-sectional region, and ■ at least one cutting element (42; 62, 63; 82) is arranged in the cavities (26, 27) that have the insert height (h 1, h 2) required for arranging the cutting elements (42; 62, 63; 82). ■ the cross-sectional regions (11, 12, 13, 14, 15) of the green body (10; 60; 80) are respectively divided into material regions (17, 18, 21, 23, 25) produced from the powdery material (41; 61; 81) and setting regions (19, 22, 24), in which the cutting elements (42; 62, 63; 82) are arranged, ■ the material regions and setting regions of one cross-sectional region or the material regions (18, 21; 21, 23) and setting regions (19, 22; 22, 24) of multiple successive cross-sectional regions (12, 13, 14, 15) in the building direction are applied to a building plane (43; 64; 83), which is arranged perpendicularly to the building direction, until at least one cavity (26, 27) formed by one setting region or multiple successive setting regions (19, 22; 22, 24) in the building direction has in the building direction an insert height (h 1, h 2) required for arranging the cutting elements (42; 62, 63; 82), wherein, after applying a cross-sectional region, a layer of adhesive is applied in the material region of the cross-sectional region, and ■ at least one cutting element (42; 62, 63; 82) is arranged in the cavities (26, 27) that have the insert height (h 1, h 2) required for arranging the cutting elements (42; 62, 63; 82).
Modular guiding system for covers, in particular for machine tools, having a plurality of frame parts, which are modularly joined together to form a support frame, at which guide elements are formed for guiding the cover, wherein a frame part is composed of at least two rod-like profile sections (12, 14) that are either the same or different, characterized in that the profile sections are profiled differently such that when two identical profile sections (12, 14) are joined together and also when two differently-configured profile sections (12, 14) are joined together, at least one receiving means for a guide element is respectively formed, wherein a receiving space is construed such that when the profile sections (12, 14) are joined together, the respective guide element is clamped or form-fit to be fixed in position, and wherein the profile sections (12, 14) are configured such that, when being in one or more relative positions, they form a receiving means for a guide ridge as well as a receiving means for another guide element.
A method performed at a transmitting device for scheduling traffic with a receiving device, comprising: negotiating with a receiving device to reserve a plurality of slots for communicating data with the receiving device; sending, at a beginning of one slot of the reserved plurality of slots, a request-to-send,RTS, message indicating a number of slots of the reserved plurality of slots the transmitting device intends to use for transmitting the data, wherein the RTS message includes a transmission priority of the data; receiving, from the receiving device, a clear-to-send, CTS, message in each slot of the number of slots based on the RTS message; and transmitting the data to the receiving device in each slot of the number of slots upon receiving the CTS message in each slot. negotiating with a receiving device to reserve a plurality of slots for communicating data with the receiving device; sending, at a beginning of one slot of the reserved plurality of slots, a request-to-send,RTS, message indicating a number of slots of the reserved plurality of slots the transmitting device intends to use for transmitting the data, wherein the RTS message includes a transmission priority of the data; receiving, from the receiving device, a clear-to-send, CTS, message in each slot of the number of slots based on the RTS message; and transmitting the data to the receiving device in each slot of the number of slots upon receiving the CTS message in each slot.
A battery system for a vehicle (10, 10A) comprising: - a plurality of electrochemical cells (624, 724) provided within a housing (625, 723); and - a thermal management system (621, 721) configured to provide at least one of heating or cooling to the plurality of electrochemical cells (624, 724), the thermal management system (621, 721) comprising a solid state coating (640, 740) comprising a first material (640, 740) and a second material (642, 742) different from the first material (641, 741), wherein the solid state coating (640, 740) is configured to pass a current therethrough to create a temperature differential across a first surface of the solid state coating (640, 740) and a second surface of the solid state coating (640, 740) to provide the at least one of heating or cooling to the plurality of electrochemical cells (624, 724) utilizing the Peltier effect; wherein the current applied to the solid state coating (640, 740) is supplied by an external source, preferably by a 110 AC voltage wall outlet, characterized in that the thermal management system (621, 721) is configured to provide at least one of heating or cooling to the plurality of electrochemical cells (624, 724) only while the vehicle (10, 10A) is parked and the plurality of electrochemical cells (624, 724) are being charged; wherein no cooling is provided by the thermal management system (621, 721) to the battery system while the vehicle (10, 10A) is in use. - a plurality of electrochemical cells (624, 724) provided within a housing (625, 723); and - a thermal management system (621, 721) configured to provide at least one of heating or cooling to the plurality of electrochemical cells (624, 724), the thermal management system (621, 721) comprising a solid state coating (640, 740) comprising a first material (640, 740) and a second material (642, 742) different from the first material (641, 741),