mhurhangee/ep-ind-claims huggingface dataset:
A rotation angle detecting sensor comprising: a rotating body; an encoder structure configured by a conductor pattern attached to the rotating body so as to be able to rotate with the rotating body, the encoder structure having n cycles of phases each ranging from phase 0° to phase 360°, with n representing a positive integer and each phase being formed by periodically changing the width of the conductor pattern; and a sensor body having a plurality of inductance elements and disposed opposing the encoder structure with a space, wherein the cycle number n of the phase of the encoder structure is a positive integer equal to or greater than three, wherein the plurality of inductance elements have a phase difference of 90 degrees therebetween, and wherein two adjacent inductance elements are disposed apart from each other by a space of at least half a phase of the encoder structure. a rotating body; an encoder structure configured by a conductor pattern attached to the rotating body so as to be able to rotate with the rotating body, the encoder structure having n cycles of phases each ranging from phase 0° to phase 360°, with n representing a positive integer and each phase being formed by periodically changing the width of the conductor pattern; and a sensor body having a plurality of inductance elements and disposed opposing the encoder structure with a space, wherein the cycle number n of the phase of the encoder structure is a positive integer equal to or greater than three, wherein the plurality of inductance elements have a phase difference of 90 degrees therebetween, and wherein two adjacent inductance elements are disposed apart from each other by a space of at least half a phase of the encoder structure.
A copper alloy bonding wire for semiconductor manufactured by wire drawing of a copper alloy, wherein said copper alloy consists of 0.13 to 1.15% by mass of Pd, optionally at least one of Ag and Au in atotal amount of 0.0005 to 0.07% by mass, further optionally at least one of Ti: 0.0005 to 0.01% by mass, B: 0.0005 to 0.007% by mass and P: 0.0005 to 0.02% by mass, in a total amount of 0.0005 to0.025% by mass, and a remainder consisting of copper and unavoidable impurities, wherein the copper oxide formed on the surface thereof has an average film thickness of 0.0005 to 0.02μm.
A mattress (13A/13B) for an integrated bed that includes a main bed unit having a bed back bottom, a bed hip bottom and a bed foot bottom, and a wheelchair unit that is separable from the main bed unit and has a wheelchair back bottom, a wheelchair hip bottom and a wheelchair foot bottom, the mattress (13A/13B) comprising a mattress body; characterized in that the mattress (13A/13B) further comprises: a first protrusion disposed on the mattress body, and configured to be fastened to a back-section hole in the bed or the wheelchair back bottom; a fastener disposed on the mattress body, and configured to be fastened to the bed or the wheelchair hip bottom; and a second protrusion disposed on the mattress body, and configured to be fastened to a foot-section hole in the bed or the wheelchair foot bottom. a first protrusion disposed on the mattress body, and configured to be fastened to a back-section hole in the bed or the wheelchair back bottom; a fastener disposed on the mattress body, and configured to be fastened to the bed or the wheelchair hip bottom; and a second protrusion disposed on the mattress body, and configured to be fastened to a foot-section hole in the bed or the wheelchair foot bottom.
An agglomerate comprising at least two largely rod-shaped abrasive particles, characterised in that the at least two of the largely rod-shaped abrasive particles are connected together by way of a glass binding, wherein the longitudinal axes of the at least two rod-shaped abrasive particles face in different spatial directions, wherein the abrasive particles have an aspect ratio of length to diameter of at least 2:1.
Torque sensor device (10, 20, 30) for sensing a torque which is applied to a shaft, in particular for sensing a torque which is applied to a steering shaft of a motor vehicle, wherein the torque sensor device (10, 20, 30) has a transmitter apparatus with a transmitter element and a first receiver apparatus with at least one first magnetic sensor (15A, 15B), wherein the first receiver apparatus is designed to receive a signal which is emitted by the transmitter apparatus and transmitted along a signal path to the first receiver apparatus, wherein the torque which is applied to the shaft can be determined on the basis of the signal received by the first receiver apparatus, and the torque sensor device (10, 20, 30) has at least one further receiver apparatus with at least one further magnetic sensor, wherein the further receiver apparatus is designed to carry out at least partial sensing of a magnetic interference field which acts on the torque sensor device (10, 20, 30) and is present in the surroundings of the torque sensor device (10, 20, 30), wherein at least the further magnetic sensor of the further receiver apparatus, preferably all the magnetic sensors of the further receiver apparatus is/are arranged outside a magnetically effective volume through which the magnetic flux flows during the transmission of the magnetic flux from the transmitter apparatus to the first receiver apparatus, characterized in that the torque sensor device has at least one flux conductor for bundling magnetic flux of at least one interference field in the surroundings of the torque sensor device and for passing on the bundled magnetic flux of the interference field to the further receiver apparatus, in particular to the at least one further magnetic sensor.
A method of making an anion exchange membrane, comprising: mixing a tertiary amine monomer with a quaternization agent, and the quaternization reaction is allowed to proceed to completion to produce a solution containing a functional quaternary amine monomer which is a strong base functional monomer; and subsequently adding a cross-linking agent to the solution after quaternization is complete; mixing the cross-linking agent and a solvent with the solution containing the strong base functional quaternary amine monomer to form a monomeric solution; and casting the monomeric solution on a polymeric microporous substrate to co-polymerise the strong base functional quaternary amine monomer with the cross-linking monomer to produce a co-polymerised product and form the anion exchange membrane. mixing a tertiary amine monomer with a quaternization agent, and the quaternization reaction is allowed to proceed to completion to produce a solution containing a functional quaternary amine monomer which is a strong base functional monomer; and subsequently adding a cross-linking agent to the solution after quaternization is complete; mixing the cross-linking agent and a solvent with the solution containing the strong base functional quaternary amine monomer to form a monomeric solution; and casting the monomeric solution on a polymeric microporous substrate to co-polymerise the strong base functional quaternary amine monomer with the cross-linking monomer to produce a co-polymerised product and form the anion exchange membrane.
A method of producing an HCV replicon-replicating cell, comprising a step of introducing RNA containing an HCV replicon sequence and a selectable marker gene sequence into a Li23 cell (FERM-BP-11150) or a cured cell of a Li23-derived HCV replicon-replicating cell or a cured cell of a Li23-derived full-length HCV RNA-replicating cell wherein the HCV replicon sequence comprises a base sequence encoding an amino acid sequence as set forth in SEQ ID NO: 2 containing amino acid substitutions at Q1112R, K1609E and S2200R or at Q1112R, P1115L and S2200R.
A measurement device comprising: a plurality of sensors for receiving a wave propagating through space from an object situated at a distance and a direction; and sampling timing calculation means (12, 13; 22, 23; 32, 33; 42, 43; 52, 53; 62, 63; 72, 73) for determining difference in arrival time of said wave received by each sensor based on the relative position of each sensor and velocity of said wave and for calculating sampling timing for each sensor for acquiring waveform information on said wave for each direction and each distance depending on previously specified azimuthal resolution and distance resolution, based on said arrival time difference. a plurality of sensors for receiving a wave propagating through space from an object situated at a distance and a direction; and sampling timing calculation means (12, 13; 22, 23; 32, 33; 42, 43; 52, 53; 62, 63; 72, 73) for determining difference in arrival time of said wave received by each sensor based on the relative position of each sensor and velocity of said wave and for calculating sampling timing for each sensor for acquiring waveform information on said wave for each direction and each distance depending on previously specified azimuthal resolution and distance resolution, based on said arrival time difference.
A smart card comprising a fingerprint authentication system, the fingerprint authentication system comprising: a transformation unit configured to transform a first format of a captured fingerprint into a second format of the captured fingerprint, wherein the first format defines coordinates of minutia positions and the second format defines relative positions of minutiae; an authentication unit configured to compare the relative positions with stored reference values, wherein the reference values are securely stored in the authentication unit; characterised in that the transformation unit is implemented in a first processor and the authentication unit is implemented in a second processor, wherein the second processor is a tamper-resistant integrated circuit, wherein the second processor has a lower computational performance yet higher security than the first processor. a transformation unit configured to transform a first format of a captured fingerprint into a second format of the captured fingerprint, wherein the first format defines coordinates of minutia positions and the second format defines relative positions of minutiae; an authentication unit configured to compare the relative positions with stored reference values, wherein the reference values are securely stored in the authentication unit; characterised in that the transformation unit is implemented in a first processor and the authentication unit is implemented in a second processor, wherein the second processor is a tamper-resistant integrated circuit, wherein the second processor has a lower computational performance yet higher security than the first processor.
An immunohistochemistry assay method for in vitro detection of oxMIF, wherein oxMIF is MIF which is differentially binding to antibody RAB4, RAB9 and/or RAB0, in a tissue sample of a subject, comprising the determination of the binding of a compound to oxMIF in said sample in vitro, wherein the following steps are carried out: a) Optional Blocking step with blocking buffer and b) Binding step with primary anti-oxMIF antibody without a previous fixation step, in particular either formaldehyde or acetone; wherein a washing step is carried out after binding step b) to wash away excess antibody; c) fixation step, wherein said fixation is carried out in formaldehyde for 10 - 25 minutes; d) Incubation with secondary antibody, wherein the secondary antibody is an idiotypic rabbit monoclonal antibody directed against an anti-oxMIF antibody; and e) Detection of binding between the primary anti-oxMIF antibody and the secondary antibody. a) Optional Blocking step with blocking buffer and b) Binding step with primary anti-oxMIF antibody without a previous fixation step, in particular either formaldehyde or acetone; wherein a washing step is carried out after binding step b) to wash away excess antibody; c) fixation step, wherein said fixation is carried out in formaldehyde for 10 - 25 minutes; d) Incubation with secondary antibody, wherein the secondary antibody is an idiotypic rabbit monoclonal antibody directed against an anti-oxMIF antibody; and e) Detection of binding between the primary anti-oxMIF antibody and the secondary antibody.
Device for generating a first top view, dependent on first view information, of a motor vehicle from at least one image (b) from at least one camera (k1, k2, k3, k4) the optical axis of which is substantially parallel to a plane spanned from the vehicle longitudinal direction and the vehicle transverse direction, wherein the device is configured • to receive the at least one image (b) from the camera (k1, k2, k3, k4), • to extract second view information from the image (b) by way of a coding unit, • to extract view-independent content information (z) from the image (b) by way of the coding unit, and • to generate the first top view on the basis of the first view information and the view-independent content information (z) by way of a first generator unit, characterized in that the device additionally • comprises a first discriminator unit that is configured to receive the top view generated by the first generator unit, • comprises a second generator unit that is configured to generate a second top view from third view information and noise information (r), and • comprises a second discriminator unit that is configured to receive the top view generated by the second generator unit, wherein the coding unit, the first generator unit, the second generator unit, the first discriminator unit and the second discriminator unit each comprise a neural network. • to receive the at least one image (b) from the camera (k1, k2, k3, k4), • to extract second view information from the image (b) by way of a coding unit, • to extract view-independent content information (z) from the image (b) by way of the coding unit, and • to generate the first top view on the basis of the first view information and the view-independent content information (z) by way of a first generator unit, • comprises a first discriminator unit that is configured to receive the top view generated by the first generator unit, • comprises a second generator unit that is configured to generate a second top view from third view information and noise information (r), and • comprises a second discriminator unit that is configured to receive the top view generated by the second generator unit,
A distributing device for chopped material, with a chopper, a distributor downstream of the chopper and which comprises a plurality of deflector elements (24, 40) spaced apart in a width direction in order to impart a component of velocity in the width direction upon the chopped material, and a pan which extends at least between the chopper and the distributor and which guides the chopped material to the distributor, characterized in that at least a portion of the pan is configured as a stepped pan with a plurality of stepped pan sections (30, 31, 30) one after the other in the width direction, wherein the stepped pan sections (30, 31, 30) have different inclinations with respect to a material conveying direction which is orthogonal to the transverse direction, and from which the chopped material arrives at the stepped pan.
Method for electrically controlling a valve actuator in a 2-stroke or 4-stroke combustion engine, where the actuator comprises a first solenoid with a first plunger and a second solenoid with a second plunger, wherein said solenoids (A, B) are arranged in series with each other, wherein the engine has at least one cylinder with at least one freely controllable engine valve comprising a valve disc with associated valve stem and a valve spring arranged to keep the valve closed, wherein air is introduced, or exhaust gases are evacuated from, a combustion chamber past a lower part of the valve stem with the valve disc via at least one channel in the cylinder, wherein the valve actuator is activatable to open the engine valve by overcoming the closing force of said valve spring, wherein said first and second plunger are each provided with a stop defined as the position at which the force of the respective solenoid on the plunger is at its maximum, wherein the method comprises opening the valve by activating both the first and the second solenoid such that the plungers of the first and second solenoids together act on the valve stem until the first plunger has reached its stop in the first solenoid, whereafter the second plunger continues to act on the valve stem until the second plunger has reached its stop in the second solenoid.
A prosthetic heart valve which includes a stent having three leaflets attached thereto, the stent being compressible to a compressed condition in which it is capable of being introduced into a patient's body through a minimally invasive procedure and further being expandable from the compressed condition to an operative condition during deployment of the valve within the patient's body, the stent having a ring-like body with an inlet and an outlet and defining in its height three arch-shaped elements each of which has an arc and a pair of haunches extending from opposite sides thereof, with three commissural posts formed by the haunches of adjacent arch-shaped elements, each leaflet having an attachment edge and a free edge with a belly extending between the free edge and the attachment edge, the leaflets being movable between an open condition, in which fluid flow through the valve is permitted in a direction from the inlet to the outlet, and a coapted condition, in which the free edges abut and prevent fluid flow through the valve in an opposite direction from the outlet to the inlet, characterized in that the leaflets are made from a polymeric material and are moulded directly onto the stent so that the attachment edge of each leaflet is continuously attached along the length of an arch-shaped element, wherein the arch-shape is defined by a parametric curve and its mirror image along the z-axis which is wrapped about a cylinder having a diameter of the prosthetic heart valve, with the parametric curve being defined by a function A(x) = (1 - x) 3 P 0 + 3(1 - x) 2 xP 1 + 3(1 - x)x 2 P 2 + x 3 P 3, with P 0 to P 3 being control points, wherein P 0 and P 3 are selected on the basis of the diameter and height of prosthetic heart valve, and wherein P 1 is selected from the range of 0 ≤ z ≤ H and P 2 is selected from the range 0 ≤ x ≤ πD / 6 where H is the height and D the diameter of the prosthetic heart valve.
A wireless downhole unit (1, 100) adapted to be lowered into a well in a casing having an inner wall and an inner diameter (D c), comprising: - an electrical motor, - a pump, - driving means for allowing movement of the wireless downhole unit within the casing, and - at least one battery pack comprising at least one battery for powering the electrical motor driving the pump driving the driving means to move the unit along the inner wall of the casing, characterised in that the unit comprises an expandable having a centre and being expandable from a first diameter (D 1) to a second diameter (D 2), the expandable device has an aperture in the centre and in that a turbine is arranged in the aperture for recharging the battery. - an electrical motor, - a pump, - driving means for allowing movement of the wireless downhole unit within the casing, and - at least one battery pack comprising at least one battery for powering the electrical motor driving the pump driving the driving means to move the unit along the inner wall of the casing,
Internal combustion engine or compressor having an air suction circuit comprising a sound-deadening duct for aeriform fluids, said duct comprising a hollow body wherein a side wall and at least two axial openings (17, 19), for the inlet and outlet of air respectively, are defined, said side wall of said hollow body being provided with at least one radial opening defining a corresponding channel extending through said wall, characterized in that said wall is at least partially coated with a layer of sound-absorbing material that at least partially penetrates into the channel defined by said at least one opening.
A method for producing inorganic fiber comprising: (i) preparing a spinning raw material liquid which comprises an aluminum source, a calcium source, a silicon source and a spinning auxiliary, in which the content of the aluminum source, the calcium source and the silicon source is chosen such as to obtain, in step (iii), an inorganic fiber comprising 35 mass% to 88 mass% of Al 2 O 3, 3 mass% to 45 mass% of CaO and 5 mass% to 40 mass% of SiO 2 and 97 mass% or more of total Al 2 O 3, CaO and SiO 2; and the content of the spinning auxiliary is, in terms of solid matter, 3 parts by mass or more relative to 100 parts by mass of the total of the aluminum source, the calcium source and the silicon source; (ii)spinning the spinning raw material liquid by a sol-gel method to obtain crude inorganic fiber; and (iii)firing the crude inorganic fiber to produce inorganic fiber that comprises 35 mass% to 88 mass% of Al 2 O 3, 3 mass% to 45 mass% of CaO and 5 mass% to 40 mass% of SiO 2 in which the total of Al 2 O 3, CaO and SiO 2 is 97 mass% or more of the entire fiber. (i) preparing a spinning raw material liquid which comprises an aluminum source, a calcium source, a silicon source and a spinning auxiliary, in which the content of the aluminum source, the calcium source and the silicon source is chosen such as to obtain, in step (iii), an inorganic fiber comprising 35 mass% to 88 mass% of Al 2 O 3, 3 mass% to 45 mass% of CaO and 5 mass% to 40 mass% of SiO 2 and 97 mass% or more of total Al 2 O 3, CaO and SiO 2; and the content of the spinning auxiliary is, in terms of solid matter, 3 parts by mass or more relative to 100 parts by mass of the total of the aluminum source, the calcium source and the silicon source; (ii)spinning the spinning raw material liquid by a sol-gel method to obtain crude inorganic fiber; and (iii)firing the crude inorganic fiber to produce inorganic fiber that comprises 35 mass% to 88 mass% of Al 2 O 3, 3 mass% to 45 mass% of CaO and 5 mass% to 40 mass% of SiO 2 in which the total of Al 2 O 3, CaO and SiO 2 is 97 mass% or more of the entire fiber.
A remote station for receiving multimedia broadcast multicast services over a communication system that comprises a shared network and a proprietary network, the remote station comprising: a receiver for receiving multimedia broadcast multicast services over the shared network, the remote station characterised by: a detector for detecting that it is out of coverage from the shared network; and logic for initiating in response to said detection a Real Time Streaming Protocol request and for sending it to a broadcast multicast service centre streaming server of the proprietary network to maintain the same content delivery over the proprietary network it had received over the shared network. a receiver for receiving multimedia broadcast multicast services over the shared network, the remote station characterised by: a detector for detecting that it is out of coverage from the shared network; and logic for initiating in response to said detection a Real Time Streaming Protocol request and for sending it to a broadcast multicast service centre streaming server of the proprietary network to maintain the same content delivery over the proprietary network it had received over the shared network. a detector for detecting that it is out of coverage from the shared network; and logic for initiating in response to said detection a Real Time Streaming Protocol request and for sending it to a broadcast multicast service centre streaming server of the proprietary network to maintain the same content delivery over the proprietary network it had received over the shared network.
A piezoelectric ceramic comprising a composition represented by the following general formula as the main component, (K 1-x-y-w-v Na x Li y Ba w Sr v) m (Nb 1-z-u Ta z -Zr u)O 3 ··· wherein, x, y, z, w, v, u and m in the formula are satisfying the following conditions respectively, 0.4<x≦0.7, 0.02≦y≦0.1, 0<z≦0.3, 0<w≦0.01, 0.04≦v≦0.07, 0.04≦u≦0.07, and 0.95≦m≦0.975.