mhurhangee/ep-ind-claims huggingface dataset:
An image processing device comprising: a polarization image acquisition unit configured to acquire polarization images for three or more polarization directions; a feature quantity computation unit configured to compute an image feature quantity for each of one or more pixels using the polarization images acquired by the polarization image acquisition unit, the image feature quantity indicating a surface shape of an object in the polarization image at the corresponding pixel position; and an image processing unit (31, 51, 61) configured to perform image processing using the image feature quantity, wherein the feature quantity computation unit normalizes the luminance of the polarization images for each pixel, and designates the normalized luminance for each polarization direction angle as the image feature quantity, wherein the normalization of a pixel luminance comprises a division of the pixel luminance by the mean value of the luminances corresponding to that pixel for each polarization direction angle. a polarization image acquisition unit configured to acquire polarization images for three or more polarization directions; a feature quantity computation unit configured to compute an image feature quantity for each of one or more pixels using the polarization images acquired by the polarization image acquisition unit, the image feature quantity indicating a surface shape of an object in the polarization image at the corresponding pixel position; and an image processing unit (31, 51, 61) configured to perform image processing using the image feature quantity, wherein the feature quantity computation unit normalizes the luminance of the polarization images for each pixel, and designates the normalized luminance for each polarization direction angle as the image feature quantity, wherein the normalization of a pixel luminance comprises a division of the pixel luminance by the mean value of the luminances corresponding to that pixel for each polarization direction angle.
A power generation structure for generating power from a renewable energy source comprising: a base; an energy conversion structure (101, 102) connected to the base; and an articulating joint between the base and the energy conversion structure, the articulating joint comprising a bearing member (210, 216; 310, 316; 410) characterized in that the bearing member has a body (211; 311; 411) including a composite material having a rigid material (212; 312; 412) and a friction-reducing material (213; 313; 413) overlying the rigid material, wherein the friction-reducing material includes a PTFE compound layer, wherein the rigid material comprises a material selected from the group consisting of aluminum and stainless steel, and an intermediate material disposed between the rigid material and friction-reducing material. a base; an energy conversion structure (101, 102) connected to the base; and an articulating joint between the base and the energy conversion structure, the articulating joint comprising a bearing member (210, 216; 310, 316; 410) characterized in that the bearing member has a body (211; 311; 411) including a composite material having a rigid material (212; 312; 412) and a friction-reducing material (213; 313; 413) overlying the rigid material, wherein the friction-reducing material includes a PTFE compound layer, wherein the rigid material comprises a material selected from the group consisting of aluminum and stainless steel, and an intermediate material disposed between the rigid material and friction-reducing material.
A conductive sintered oxide which comprises: a first crystal phase having a composition represented by RE1 4 Al 2 O 9 and a second crystal phase having a perovskite structure represented by (RE2 1-c SL c)(Al x M1 y)O 3, in which RE1 is a first element group consisting of Yb and/or Lu and at least one element selected from Group IIIA elements excluding Yb, Lu and La, RE2 is a second element group consisting of at least one element selected from Group IIIA elements excluding La and including at least one of the elements constituting the first element group RE1, SL is an element group consisting of at least one of Sr, Ca and Mg and which includes Sr as a main element thereof in terms of molar proportion, and M1 is an element group consisting of at least one element selected from Groups IVA, VA, VIA, VIIA and VIII excluding Cr, the coefficient c of the second crystal phase is in the range of 0.18<c<0.50, and the coefficients x and y of the second crystal phase are in the range of 0.95≤x+y≤1.1. a first crystal phase having a composition represented by RE1 4 Al 2 O 9 and a second crystal phase having a perovskite structure represented by (RE2 1-c SL c)(Al x M1 y)O 3, in which RE1 is a first element group consisting of Yb and/or Lu and at least one element selected from Group IIIA elements excluding Yb, Lu and La, RE2 is a second element group consisting of at least one element selected from Group IIIA elements excluding La and including at least one of the elements constituting the first element group RE1, SL is an element group consisting of at least one of Sr, Ca and Mg and which includes Sr as a main element thereof in terms of molar proportion, and M1 is an element group consisting of at least one element selected from Groups IVA, VA, VIA, VIIA and VIII excluding Cr, the coefficient c of the second crystal phase is in the range of 0.18<c<0.50, and the coefficients x and y of the second crystal phase are in the range of 0.95≤x+y≤1.1.
An electronic device, comprising: a screen, wherein the screen comprises a bendable flexible screen portion; and a support assembly, wherein the support assembly is disposed on a back side of the flexible screen portion and configured to support the flexible screen portion, and the support assembly is switchable between a first state and a second state; wherein in a case that the support assembly is in the first state, the flexible screen portion is curved; and in a case that the support assembly is in the second state, the flexible screen portion is flat; characterized in that the flexible screen portion is connected to a back connector, and the back connector is a cover plate or a back screen; wherein the electronic device further comprises a folding member, wherein the folding member is connected between the flexible screen portion and the back connector; wherein in a case that the support assembly is in the first state, the folding member is folded inward, so that the flexible screen portion is curved; and in a case that the support assembly is in the second state, the folding member is unfolded, so that the flexible screen portion is flat. a screen, wherein the screen comprises a bendable flexible screen portion; and a support assembly, wherein the support assembly is disposed on a back side of the flexible screen portion and configured to support the flexible screen portion, and the support assembly is switchable between a first state and a second state; wherein in a case that the support assembly is in the first state, the flexible screen portion is curved; and in a case that the support assembly is in the second state, the flexible screen portion is flat; characterized in that the flexible screen portion is connected to a back connector, and the back connector is a cover plate or a back screen; wherein the electronic device further comprises a folding member, wherein the folding member is connected between the flexible screen portion and the back connector; wherein in a case that the support assembly is in the first state, the folding member is folded inward, so that the flexible screen portion is curved; and in a case that the support assembly is in the second state, the folding member is unfolded, so that the flexible screen portion is flat.
A one-part, curable composition comprising: a) at least one isocyanurate tri(meth)acrylate and at least one of: b) at least one urethane diacrylate; c) at least one monofunctional or difunctional reactive diluent, different from b) d) at least one solvent; and e) additives wherein: - the composition comprises the b) at least one urethane diacrylate and - the a) at least one isocyanurate tri(meth)acrylate is present in the composition from 15% to 50% by weight based on said components a), b), c) and e) - the b) at least one urethane diacrylate comprises an aromatic polyester urethane diacrylate. a) at least one isocyanurate tri(meth)acrylate and b) at least one urethane diacrylate; c) at least one monofunctional or difunctional reactive diluent, different from b) d) at least one solvent; and e) additives - the composition comprises the b) at least one urethane diacrylate and - the a) at least one isocyanurate tri(meth)acrylate is present in the composition from 15% to 50% by weight based on said components a), b), c) and e) - the b) at least one urethane diacrylate comprises an aromatic polyester urethane diacrylate.
A hand held airless fluid dispensing device comprising: a housing body; a reciprocating piston fluid pump disposed within the housing body and comprising at least two pumping chambers (144, 152) configured to be actuated out of phase by at least one piston; a primary drive element coupled to the housing body and connected to the reciprocating piston fluid pump to actuate the at least one piston; and a spray tip connected to an outlet of at least one of the pumping chambers (144, 152), wherein the spray tip comprises: a spray orifice; a sealing seat; and a tip barrel, wherein the spray orifice and the sealing seat are mounted to the tip barrel; wherein a valve is connected between the pump and the spray tip, the valve comprising: a needle configured to mate with the sealing seat to close the spray orifice; and a spring to bias the needle against the sealing seat; and wherein at least one of the pumping chambers (144, 152) includes an inlet connected to a fluid source through a suction tube. a housing body; a reciprocating piston fluid pump disposed within the housing body and comprising at least two pumping chambers (144, 152) configured to be actuated out of phase by at least one piston; a primary drive element coupled to the housing body and connected to the reciprocating piston fluid pump to actuate the at least one piston; and a spray tip connected to an outlet of at least one of the pumping chambers (144, 152), wherein the spray tip comprises: a spray orifice; a sealing seat; and a tip barrel, wherein the spray orifice and the sealing seat are mounted to the tip barrel; a spray orifice; a sealing seat; and a tip barrel, wherein the spray orifice and the sealing seat are mounted to the tip barrel; wherein a valve is connected between the pump and the spray tip, the valve comprising: a needle configured to mate with the sealing seat to close the spray orifice; and a spring to bias the needle against the sealing seat; and a needle configured to mate with the sealing seat to close the spray orifice; and a spring to bias the needle against the sealing seat; and wherein at least one of the pumping chambers (144, 152) includes an inlet connected to a fluid source through a suction tube.
A method for detecting geometric data of cutters of a machining tool situated on a cutter support, the geometric data being used for cutter machining, in particular for sharpening the cutters, wherein the cutter support has a rotational axis about which the cutter support is rotationally drivable for machining workpieces, wherein mounted on a circumferential area of the cutter support is a plurality of essentially planar cutters which protrude from the cutter support in the radial and/or axial direction, and which in each case have a radially outwardly and/or axially pointing free face that is delimited by a cutting edge, wherein the cutting edges of the cutters define a shared circumferential surface that envelops the cutter support, wherein the enveloping circumferential surface in a section plane containing the rotational axis of the cutter support depicts a setpoint contour curve (18, 18'), comprising the steps: A) determining at least three surface points (42, 44, 46) on the essentially planar surface of a cutter to be detected, wherein the surface points (42, 44, 46) do not lie on a common straight line; B) ascertaining a cutter plane from the at least three surface points (42, 44, 46) determined in step A); and C) calculating the curve of the cutting edge along the cutter plane ascertained in step B), taking the setpoint contour curve (18, 18') into account. A) determining at least three surface points (42, 44, 46) on the essentially planar surface of a cutter to be detected, wherein the surface points (42, 44, 46) do not lie on a common straight line; B) ascertaining a cutter plane from the at least three surface points (42, 44, 46) determined in step A); and C) calculating the curve of the cutting edge along the cutter plane ascertained in step B), taking the setpoint contour curve (18, 18') into account.
A first communication device configured to communicate with a second communication device and a third communication device in a wireless communication network using beamforming, wherein the first communication device is configured to: a.) determine a new beam from a plurality of available beams of the second communication device, in response to a beam failure event with the second communication device; b.) provide a beam failure recovery request, BFRQ, to the third communication device, wherein the BFRQ comprises information about the new beam determined by the first communication device; c.) obtain, from the third communication device, a BFRQ acknowledgement indicating that the BFRQ is forwarded by the third communication device to the second communication device; d.) obtain from the second communication device a BFRQ response, ∘ wherein the BFRQ response contains a confirmation of the new beam, ∘ wherein there is a fixed or configurable time offset between the obtaining of the BFRQ acknowledgment and the obtaining of the BFRQ response. a.) determine a new beam from a plurality of available beams of the second communication device, in response to a beam failure event with the second communication device; b.) provide a beam failure recovery request, BFRQ, to the third communication device, wherein the BFRQ comprises information about the new beam determined by the first communication device; c.) obtain, from the third communication device, a BFRQ acknowledgement indicating that the BFRQ is forwarded by the third communication device to the second communication device; d.) obtain from the second communication device a BFRQ response, ∘ wherein the BFRQ response contains a confirmation of the new beam, ∘ wherein there is a fixed or configurable time offset between the obtaining of the BFRQ acknowledgment and the obtaining of the BFRQ response. ∘ wherein the BFRQ response contains a confirmation of the new beam, ∘ wherein there is a fixed or configurable time offset between the obtaining of the BFRQ acknowledgment and the obtaining of the BFRQ response.
A method of acquiring available resources, the method comprising: performing (301; 401) listen before talk, LBT, on an entire bandwidth part; on a condition that the BWP is acquired, transmitting (305; 407) on the acquired BWP; on a condition that the BWP is not acquired, performing (302; 402) LBT on one or more subband sets; on a condition that one or more subband sets are acquired, transmitting (305; 407) on the one or more subband sets; on a condition that one or more subband sets are not acquired, performing (303; 403; 404) LBT on one or more subbands; and on a condition that one or more subbands are acquired, transmitting (305; 407) on the one or more subbands. performing (301; 401) listen before talk, LBT, on an entire bandwidth part; on a condition that the BWP is acquired, transmitting (305; 407) on the acquired BWP; on a condition that the BWP is not acquired, performing (302; 402) LBT on one or more subband sets; on a condition that one or more subband sets are acquired, transmitting (305; 407) on the one or more subband sets; on a condition that one or more subband sets are not acquired, performing (303; 403; 404) LBT on one or more subbands; and on a condition that one or more subbands are acquired, transmitting (305; 407) on the one or more subbands.
A fixture for a lamp for releasable mounting in an opening of an accommodating element, preferably in a circular opening of an accommodating element, comprising: a cylindrical mounting element having a lateral wall, a front side, and an opposite rear side; characterised in that the mounting element is formed with a rear wall; the front side has an opening for receiving the lamp; the lateral wall has at least one rib projecting radially outwards, preferably more than one, preferably two ribs projecting radially outwards, which are arranged tangentially spaced apart from each other; and wherein the lateral wall has at least one latching element projecting radially outwards, and wherein the mounting element comprises a further resilient element as a tolerance compensation against radial and/or axial displacement, which is functionally related to the inner wall of the accommodating element, when the latching element is engaged. a cylindrical mounting element having a lateral wall, a front side, and an opposite rear side; characterised in that the mounting element is formed with a rear wall; the front side has an opening for receiving the lamp; the lateral wall has at least one rib projecting radially outwards, preferably more than one, preferably two ribs projecting radially outwards, which are arranged tangentially spaced apart from each other; and wherein the lateral wall has at least one latching element projecting radially outwards, and wherein the mounting element comprises a further resilient element as a tolerance compensation against radial and/or axial displacement, which is functionally related to the inner wall of the accommodating element, when the latching element is engaged.
A computer-implemented method of determining false detection of peaks in a bio-signal, the method comprising: receiving a bio-signal from an ultrasonic sensor (110, 910); detecting peaks from the bio-signal; and determining false detection of a peak, among the detected peaks, by using eaeeta time interval between a current peak and an immediately preceding peak, a shape of a waveform on a left region and a right region of the peak, and an occurrence position of the peak, wherein the determining the false detection of the peak comprises, based on an area of the right region of the peak being less than an area of the left region of the peak by a predetermined threshold value or greater, determining the peak as false detection. receiving a bio-signal from an ultrasonic sensor (110, 910); detecting peaks from the bio-signal; and determining false detection of a peak, among the detected peaks, by using eaeeta time interval between a current peak and an immediately preceding peak, a shape of a waveform on a left region and a right region of the peak, and an occurrence position of the peak, wherein the determining the false detection of the peak comprises, based on an area of the right region of the peak being less than an area of the left region of the peak by a predetermined threshold value or greater, determining the peak as false detection.
A pellet dryer comprising: a housing, an inlet for feeding fluid flushed pellets, and first and second outlets (3, 10) for discharging the fluid and the dried pellets, respectively, a bladed rotor having a central axis that extends in a vertical direction for separation of the fluid by a screen toward outside of the screen surrounding the bladed rotor and for a vertical acceleration and separation of the pellets by the blades of the bladed rotor and for continuously drying the vertically accelerated pellets inside the screen of the housing, wherein an additional blower is provided, characterized in that said blower comprises a fan on top of the housing positioned in the periphery of the bladed rotor and connected with a ductwork inside the housing, said ductwork having a cross sectional area (21, 24, 25) to fit in an available space between an inner surface of the housing and an outer surface of a framework of the screen, wherein the rotational speed of the additional blower is controlled by a central controller unit of the pellet dryer independently of the rotational speed of the bladed rotor.
An engine performance degrader for an internal combustion engine comprising an electronically controlled fuel injection system, the degrader being adapted for connection to the fuel supply system of the engine between an engine management computer or powertrain control module of the engine and a fuel injector for the engine to interrupt the signals issued by the PCM to the injector and to supply modified signals to the injector, the degrader comprising means for measuring the normal duration of a pulsed supply of fuel to the injector, means for shortening the pulse length of the supply of fuel and a microprocessor for receiving signals from the measuring means and for transmitting signals to the pulse length modifying means to enable the pulse length to be modified thus to control the quantity of the fuel supplied to the engine.
A monoclonal antibody or antigen binding domain thereof which binds to a portion of the amino acid sequence: GGFYYLYANICFRHHETSGDLATEYLQLMVYVTKTSIKIP (SEQ ID NO: 76) from amino acid residue 212 to amino acid residue 250 of human OPGbp (osteoprotegerin binding protein), wherein the antibody or antigen binding domain thereof inhibits the formation or activation of osteoclasts mediated by human OPGbp. GGFYYLYANICFRHHETSGDLATEYLQLMVYVTKTSIKIP (SEQ ID NO: 76) from amino acid residue 212 to amino acid residue 250 of human OPGbp (osteoprotegerin binding protein), wherein the antibody or antigen binding domain thereof inhibits the formation or activation of osteoclasts mediated by human OPGbp.
A method of operating a plasma generation apparatus wherein a maintenance voltage (U A) is applied between an anode and a cathode between which a plasma should be formed; and an igniting voltage (Uz) is applied between the anode and the cathode for igniting the plasma, characterized in that the ignition voltage (Uz) for igniting the plasma is increased starting from a start ignition voltage (U ZA); and a continuous check is carried out during the ignition process, whether the ignition of the plasma has been effected; and when the ignition voltage (Uz) required for the ignition of the plasma is reached and thus recognizing an effected ignition of the plasma, the voltage between anode and the cathode is not further increased, but reduced to the maintenance voltage (U A).