mhurhangee/ep-ind-claims huggingface dataset:
A vehicle steering arrangement comprising a steering wheel and a torque transmitting steering column arrangement arranged to connect the steering wheel with front wheels (3a, 3b) of a vehicle, the vehicle steering arrangement further comprises at least a first steering column part (1 a) connected to said steering wheel and a second steering column part (1 b) connected to the front wheels (3a, 3b), wherein said first and second steering column part (1 a, 1 b) are connected to each other by a decoupling device adapted to decouple said first and second steering column parts (1 a, 1 b) from each other when an accident is detected so that said second steering column part (1 b) can rotate in relation to said first steering column part (1 a) characterised in that said decoupling device is adapted to be activated to decouple the first and second steering column parts (1 a, 1 b) when an activation signal indicating a crash situation from a sensor detecting an accident is emitted, wherein the activation signal activates a force creating device, connected to the decoupling device, wherein the force creating device is adapted to create a force or shock wave having the strength to create a crack in the decoupling device which in turn leads to a separation of the first and second steering column parts (1 a, 1 b) and/or when forces originating from a crash situation act on at least one of the front wheels (3a, 3b) in a direction essentially perpendicular to the at least one wheel (3a, 3b), wherein said decoupling device is at least one designed material weakening point in the steering column arrangement arranged to separate the steering column arrangement into the at least first and second column part (1 a, 1 b).
A haulm cutting apparatus (2; 102) comprising lateral and vertical guiding means or surfaces (7'; 122, 124) and a first, rotatable shear (11; 111) rotatable around an axis of rotation extending in a direction with a vertical component, and further comprising a counter shear (12; 12a; 112) for cooperation with the first, rotatable shear (11; 111), wherein the first, rotatable shear(11; 111) and counter shear (12; 12a; 112) are positioned in a side-by-side relationship relative to a direction of travel during operation, character- ized in that at least one of the first, rotatable shear (11; 111) and the counter shear (12; 112) comprise a circular disc with a recessed rim portion (13, 13'; 113, 113').
A roof window comprising a frame having a plurality of frame members including a top member, two side members and a bottom member (11, 12, 13, 14), a sash having a plurality of sash members a top member, two side members and a bottom member (21, 22, 23, 24), and operating means including a handle, said handle being rotatably connected to a sash member and comprising a shaft with a predefined length (Ls) and at least one cross-sectional dimension (Hs) lodged in an aperture in the sash member, a grip and a pawl to interact with a striking plate connected to the frame member, characterised in that the handle is connected to the sash bottom member and is provided with a shock-absorbing bushing having a predefined length, at least one outer cross-sectional dimension and an opening with at least one cross-sectional dimension, and extending about the shaft.
Method for applying an inscription and/or for applying a marking in the form of a code to a piston rod of a fluid cylinder, wherein at least the surface of the piston rod is made of metallic material, especially of chromium or of steel, for example of hardened steel, of chromium-plated steel or of special steel, characterised in that - at least one covering, which is matched to the shape of the surface and especially reproduces the inscription and/or marking, is placed onto the surface so that the region to be provided with the inscription and/or marking is not covered by the covering, - the piston rod with the covering is exposed to a first electrolyte by means of which material is removed from the surface to form depressions in the region to be provided with the inscription and/or marking, and - the piston rod with the covering and with the depressions not covered with the covering is exposed to a second electrolyte by means of which the depressions are filled to form the inscription and/or marking which differs optically, especially in colour, from the surface. - at least one covering, which is matched to the shape of the surface and especially reproduces the inscription and/or marking, is placed onto the surface so that the region to be provided with the inscription and/or marking is not covered by the covering, - the piston rod with the covering is exposed to a first electrolyte by means of which material is removed from the surface to form depressions in the region to be provided with the inscription and/or marking, and - the piston rod with the covering and with the depressions not covered with the covering is exposed to a second electrolyte by means of which the depressions are filled to form the inscription and/or marking which differs optically, especially in colour, from the surface.
A semiconductor chip (100, 200, 300, 400) comprising: a metal-oxide-semiconductor, MOS, transistor, having a gate terminal; a first oxide protection circuit, having a first terminal coupled to the gate terminal of the MOS transistor, and further having a second terminal arranged to receive a first ground voltage, wherein a noise level of the first ground voltage is lower than a noise level of a second ground voltage defined in the semiconductor chip (100, 200, 300, 400); a second oxide protection circuit, having a first terminal coupled to the gate terminal of the MOS transistor, and further having a second terminal arranged to receive a first supply voltage, wherein a noise level of the first supply voltage is lower than a noise level of a second supply voltage defined in the semiconductor chip (100, 200, 300, 400); characterized in that the chip (100, 200, 300, 400) comprises an internal regulator circuit, arranged to regulate and output the first supply voltage according to the second supply voltage. a metal-oxide-semiconductor, MOS, transistor, having a gate terminal; a first oxide protection circuit, having a first terminal coupled to the gate terminal of the MOS transistor, and further having a second terminal arranged to receive a first ground voltage, wherein a noise level of the first ground voltage is lower than a noise level of a second ground voltage defined in the semiconductor chip (100, 200, 300, 400); a second oxide protection circuit, having a first terminal coupled to the gate terminal of the MOS transistor, and further having a second terminal arranged to receive a first supply voltage, wherein a noise level of the first supply voltage is lower than a noise level of a second supply voltage defined in the semiconductor chip (100, 200, 300, 400); characterized in that the chip (100, 200, 300, 400) comprises an internal regulator circuit, arranged to regulate and output the first supply voltage according to the second supply voltage.
A Zr-based amorphous alloy, wherein the Zr-based amorphous alloy has the following formula: (Zr,Hf) a Cu b Ni c Al d RE e, wherein a, b, c, d, and e are corresponding atomic percent content of elements in the Zr-based amorphous alloy, and fulfill: 58 ≤ a ≤ 65, 15 ≤ b ≤ 32; 2 ≤ c ≤ 15, 7 ≤ d ≤ 13 and 0.05 ≤ e ≤ 2 respectively; where, a + b + c + d + e = 100, and the percent content of the Hf is from higher than 0 to 8; and RE is one of or any combination of elements La, Ce, Po, Ho, Er, Nd, Gd, Dy, Sc, Eu, Tm, Tb, Pr, Sm, Yb, and Lu, or RE is combined of Y and one of or any combination of elements La, Ce, Po, Ho, Er, Nd, Gd, Dy, Sc, Eu, Tm, Tb, Pr, Sm, Yb, and Lu. 58 ≤ a ≤ 65, 15 ≤ b ≤ 32; 2 ≤ c ≤ 15, 7 ≤ d ≤ 13 and 0.05 ≤ e ≤ 2 respectively; where, a + b + c + d + e = 100, and the percent content of the Hf is from higher than 0 to 8; and RE is one of or any combination of elements La, Ce, Po, Ho, Er, Nd, Gd, Dy, Sc, Eu, Tm, Tb, Pr, Sm, Yb, and Lu, or RE is combined of Y and one of or any combination of elements La, Ce, Po, Ho, Er, Nd, Gd, Dy, Sc, Eu, Tm, Tb, Pr, Sm, Yb, and Lu.
A device for cleaning chicken feet comprising a bottom conveying unit comprising an endless conveyor belt stretched between a motor-driven driving shaft and a tension roll, wherein the conveyor belt moves over a support structure top, and then returns under the support structure top, and comprising a pressing unit cooperating with the conveying unit, wherein the pressing unit comprises an endless pressing mesh belt with a width corresponding to the width of the conveyor belt stretched between a drive roller and at least one sliding roller, where the pressing mesh belt moves in the same direction as the conveyor belt, wherein the device is provided with a cleaning liquid, pressure, rotating nozzle directed through the pressing mesh belt to the conveyor belt and comprises a wastewater system, characterised in that, the conveying unit comprises a plurality of parallel conveyor belts of which each has the form of interconnected, repeating plastic links, where each link of the conveyor belt comprises a central groove, and in the conveyor belt longitudinal central groove formed from the connected links, and the device comprises a plurality of parallel modules of the top pressing unit, wherein in each module of the pressing unit, tension rollers of the endless pressing mesh belt are attached to a vertical supporting plate of the pressing unit module, and the liquid pressure nozzle in each of the pressing unit modules is directed with its outlet through the pressing mesh belt towards the conveyor belt groove corresponding to the pressing unit module, wherein the pressure nozzles of each of the pressing unit modules are supplied from a common supply header.
A switching device for switching a current between a first terminal and a second terminal, comprising a series arrangement of at least two JFETs (J 1 -J n), of which a lowermost JFET (J 1) is connected to the first terminal, or the lowermost JFET (J 1) is connected in a cascode arrangement via a control switch to the first terminal, and of one or more further, upper JFETs (J 2 -J 5) which is or are connected in series to the lowermost JFET (J 1), wherein the JFET (J n) which is distanced furthest from the lowermost JEFT (J 1) is indicated as the uppermost JFET (J n) and with its drain terminal is connected to the second terminal, and wherein a passive circuit network for the dynamic activation or the gate voltages of the JFETs (J 1 -J n) is connected between the gate terminals or the JEFTs (J 1 -J n) and the first terminal, wherein the circuit network comprises first diodes (D AV,1, D AV,2,... D AV,n) in each case between the gates of two JFETs of the series arrangement of JFETs (J 1 -J n), wherein the drain terminal of a first one of the two JEFTs is connected to the source terminal of the second of the two JFETs, characterised in that an additional circuit is connected in each case between the gate terminal (G J2, G J3... G Jn) of the upper JFETs (J 2, J 3,..., J n) and the cathode terminals (K 1, K 2, K 3,... K n-1) of the first diodes of the circuit network, or between anode terminals of the first diodes of the circuit network and the gate terminals (G J1, G J2, G J3... G Jn) of assigned JFETs (J 1, J 3,...., J n-1), wherein the additional circuit comprises one or more second diodes (D Z,1, D Z,2... D Z,n-1) which are operated in series and which are connected in series to the first diodes (D AV,1, D AV,2,... D AV,n), and in each case either • an anode of one of the first diodes is connected to the gate which lies closer to the lowermost JFET, and the cathode of one of the second diodes is connected to the gate which lies closer to the uppermost JFET, or • an anode of one of the second diodes is connected to the gate which lies closer to the lowermost JFET, and the cathode of one of the first diodes is connected to the gate which lies closer to the uppermost JFET, wherein wherein the additional circuit comprises one or more capacitors (C CL,1, C CL,2... C CL, n-1) which each are connected parallel to the second diodes (D Z,1, D Z2... D Z,n-1). • an anode of one of the first diodes is connected to the gate which lies closer to the lowermost JFET, and the cathode of one of the second diodes is connected to the gate which lies closer to the uppermost JFET, or • an anode of one of the second diodes is connected to the gate which lies closer to the lowermost JFET, and the cathode of one of the first diodes is connected to the gate which lies closer to the uppermost JFET, wherein
An image combiner that is configured to combine an image projected by a projector and a natural incident light by allowing the natural light to penetrate and by reflecting a light projected by the projector toward an operator, characterized in that it comprises: a plurality of reflection layers (31, 33, 35, 37) configured to reflect the light projected by the projector; an electric field generation layer configured to generate an electric field, for detection of a three-dimensional gesture operation, around the image combiner; and an output layer, including a plurality of detection electrodes (RX0, RX1, RX2, RX3, RX4), configured to output a voltage according to a detected electrical field; wherein a single reflection layer among the plurality of reflection layers (31, 33, 35, 37) is arranged between the electric field generation layer and the output layer. a plurality of reflection layers (31, 33, 35, 37) configured to reflect the light projected by the projector; an electric field generation layer configured to generate an electric field, for detection of a three-dimensional gesture operation, around the image combiner; and an output layer, including a plurality of detection electrodes (RX0, RX1, RX2, RX3, RX4), configured to output a voltage according to a detected electrical field; wherein a single reflection layer among the plurality of reflection layers (31, 33, 35, 37) is arranged between the electric field generation layer and the output layer.
A working vehicle in which a work equipment is provided, and a power of an engine is transmitted to a tire as a driving force via a driving force transmission path, the working vehicle comprising: driving force variation means for freely varying the driving force transmitted to the tire, the driving force variation means being provided in the driving force transmission path; tire slip detection means for detecting an occurrence of a tire slip; driving force measurement means for measuring the driving force; and first tire slip prevention control means for controlling the driving force variation means, wherein when the tire slip detection means detects the tire slip, the driving force measurement means measures the driving force at the time of the detection of the tire slip, after the tire slip is detected, the driving force is reduced to a driving force which is lower than the detected driving force at the time of the detection of the tire slip to suppress the tire slip, and after the tire slip is suppressed, the driving force is restored to a driving force which is within a certain range that is smaller than the detected driving force at the time of the detection of the tire slip, wherein the driving force transmission path is provided with a hydrostatic transmission including a hydraulic pump connected to an output shaft of the engine, a hydraulic motor connected to the tire, and a closed circuit that links the hydraulic pump and the hydraulic motor, the driving force variation means is capacity variation means for freely varying a capacity of the hydraulic pump and/or the hydraulic motor of the hydrostatic transmission, and the tire slip prevention control means, controls the capacity variation means such that the driving force becomes smaller than the driving force at the time of the detection of the tire slip. driving force variation means for freely varying the driving force transmitted to the tire, the driving force variation means being provided in the driving force transmission path; tire slip detection means for detecting an occurrence of a tire slip; driving force measurement means for measuring the driving force; and first tire slip prevention control means for controlling the driving force variation means,
Laser device with a pendulum laser device consisting of a universal joint with a first and second shaft (20, 22) and a radiation device arranged on the universal joint, in which the radiation device has a pendulum body, which is made selfleveling in a vertical direction independently of an alignment of the laser device by means of the universal joint, in which the first and second shafts (20, 22) of the universal joint are arranged offset to each other in a vertical direction and are connected by means of a coupling element, characterised in that the pendulum body of the radiation device is mounted so that it may be displaced on at least one of the shafts of the universal joint.
Sanding head for a portable sander for sanding a wall, having a group of tool shafts which are mounted so as to rotate about respective tool axes and each have a tool fastener, a central shaft, a tool plate mounted so as to rotate about the central shaft, wherein the tool shafts are arranged in a fixed position on the tool plate and are arranged eccentrically to the central shaft, a transmission construction for converting a rotary movement of the central shaft into a rotary movement of the tool plate and into a rotary movement of each tool shaft counter to the rotary movement of the tool plate, wherein the transmission construction comprises a roller ring for reciprocally converting the rotary movement of the tool plate into the opposite rotary movement of each tool shaft, and a force transmission device connected to the central shaft and to at least one direct tool shaft of the group of tool shafts, said force transmission device being designed to transmit the rotary movement of the central shaft to the at least one direct tool shaft, wherein at least one indirect tool shaft of the group of tool shafts is designed to be driven in rotary movement only by the roller ring, characterized in that the tool plate has a self-setting compensating mass which is configured to compensate a displacement of the centre of mass of the sanding head by way of the force transmission device such that the centre of mass of the sanding head lies on an axis of the central shaft.
A method of fabricating a film, the method comprising the steps of: a. providing a substrate and a plurality of flowable printing compositions each comprising a different dispersion of prefabricated nanoparticles having the formula Culn 1-x Ga x Se 2, where 0 ≤ x ≤ 1 and having an average size no greater than 100 nm; b. printing a layer of one of the printing compositions onto the substrate; c. annealing the printed layer to form a continuous film; and d. repeating steps (b) and (c) with another or the same printing composition to form the film, wherein x varies through the printing compositions and wherein the nanoparticles of each composition comprise the same elements in different proportions, the layers being applied to create a concentration gradient of indium and gallium through the film. a. providing a substrate and a plurality of flowable printing compositions each comprising a different dispersion of prefabricated nanoparticles having the formula Culn 1-x Ga x Se 2, where 0 ≤ x ≤ 1 and having an average size no greater than 100 nm; b. printing a layer of one of the printing compositions onto the substrate; c. annealing the printed layer to form a continuous film; and d. repeating steps (b) and (c) with another or the same printing composition to form the film,
A method of a user equipment for scheduling an uplink, UL, signal or a downlink, DL, data channel in a radio access network, the method comprising: receiving, from a base station, scheduling information on the UL signal and the DL data channel through a DL control channel; and transmitting the UL signal and receiving the DL data channel based on the scheduling information, wherein the UL signal includes an UL data channel or an UL control channel, wherein the scheduling information includes timing relationship configuration information between the DL control channel and the DL data channel or the UL data channel for the DL control channel, and timing relationship configuration information between the DL data channel and the UL control channel for the DL data channel, wherein a numerology of a carrier for receiving the DL control channel is different from a numerology of the DL data channel or the UL data channel for the DL control channel, wherein the timing relationship configuration information between the DL control channel and the DL data channel or the UL data channel for the DL control channel is configured based on a unit of a slot based on a numerology used for receiving the DL data channel, or based on a unit of a slot based on a numerology used for transmitting the UL data channel. receiving, from a base station, scheduling information on the UL signal and the DL data channel through a DL control channel; and transmitting the UL signal and receiving the DL data channel based on the scheduling information, wherein the UL signal includes an UL data channel or an UL control channel, wherein the scheduling information includes timing relationship configuration information between the DL control channel and the DL data channel or the UL data channel for the DL control channel, and timing relationship configuration information between the DL data channel and the UL control channel for the DL data channel, wherein a numerology of a carrier for receiving the DL control channel is different from a numerology of the DL data channel or the UL data channel for the DL control channel, wherein the timing relationship configuration information between the DL control channel and the DL data channel or the UL data channel for the DL control channel is configured based on a unit of a slot based on a numerology used for receiving the DL data channel, or based on a unit of a slot based on a numerology used for transmitting the UL data channel.
A method of preparing a xenograft formed of a soft tissue for implantation into a human, which comprises a. washing a xenograft of soft tissue removed from a non-human animal in water and alcohol; b. subjecting the xenograft to a cellular disruption treatment; c. exposing the xenograft to an aldehyde in an amount ranging from about 0.01% to about 0.10%; and d. digesting the xenograft with a glycosidase to remove substantially a plurality of first surface carbohydrate moieties from the xenograft; and e. treating the xenograft with a proteoglycan-depleting factor, whereby the xenograft is substantially non-immunogenic and has substantially the same mechanical properties as the native soft tissue. a. washing a xenograft of soft tissue removed from a non-human animal in water and alcohol; b. subjecting the xenograft to a cellular disruption treatment; c. exposing the xenograft to an aldehyde in an amount ranging from about 0.01% to about 0.10%; and d. digesting the xenograft with a glycosidase to remove substantially a plurality of first surface carbohydrate moieties from the xenograft; and e. treating the xenograft with a proteoglycan-depleting factor,