mhurhangee/ep-ind-claims huggingface dataset:
A shoe for a swash plate compressor comprising: a first sliding surface which slides on a concave surface of a first movable member; and a second sliding surface which bulges toward a side opposite to the first sliding surface and slides on a flat surface of a second movable member, the second sliding surface including a curved outer peripheral portion which is provided along an outer periphery of the second sliding surface, and a central portion with a curved shape which is provided at a center of the second sliding surface so as to be continuous with the curved outer peripheral portion and has a radius of curvature greater than a radius of curvature of the curved outer peripheral portion, wherein the central portion has a diameter (a) of not less than 5 mm and a bulging height from a boundary (b) between the central portion and the outer peripheral portion to the apex of the central portion of not greater than 3 μm. a first sliding surface which slides on a concave surface of a first movable member; and a second sliding surface which bulges toward a side opposite to the first sliding surface and slides on a flat surface of a second movable member, the second sliding surface including a curved outer peripheral portion which is provided along an outer periphery of the second sliding surface, and a central portion with a curved shape which is provided at a center of the second sliding surface so as to be continuous with the curved outer peripheral portion and has a radius of curvature greater than a radius of curvature of the curved outer peripheral portion, wherein the central portion has a diameter (a) of not less than 5 mm and a bulging height from a boundary (b) between the central portion and the outer peripheral portion to the apex of the central portion of not greater than 3 μm.
A board for a composite element formed by several identical boards, wherein the board has a cross section along a longitudinal direction, which has at least one recess as well as a first projection and a second projection, wherein the board is designed such that the first projection of such a first board and the second projection of such a second board lying next to the first board can be inserted into the recess of such a third board arranged on the adjacent boards, such that the first projection of the first board and the second projection of the second board can be connected to the recess via respectively at least one inner contact surface, and the two adjacent boards can be connected via a common lateral contact surface, wherein the first board, the second board and the third board can be positively connected to one another by means of the contact surfaces (5, 6), characterized in that the board has at least one milled-out portion in the recess and at least one milled-out portion at the side on the board for proving cavities in the composite element.
An image sensor comprising: a sensor substrate comprising: an active pixel area configured to output an active pixel signal for image generation; a first dummy pixel area disposed outside the active pixel area and configured to output a dummy pixel signal to correct image data generated from the active pixel signal; and a second dummy pixel area disposed outside the active pixel area and the first dummy pixel area and configured to not output any pixel signal; and a color separating lens array facing the sensor substrate, wherein the color separating lens array is configured to condense at least portion of a first light of a first wavelength incident on a region of the color separating lens array facing the second dummy pixel area of the sensor substrate, onto a first pixel in the first dummy pixel area of the sensor substrate, by changing a phase of the first light of the first wavelength. a sensor substrate comprising: an active pixel area configured to output an active pixel signal for image generation; a first dummy pixel area disposed outside the active pixel area and configured to output a dummy pixel signal to correct image data generated from the active pixel signal; and a second dummy pixel area disposed outside the active pixel area and the first dummy pixel area and configured to not output any pixel signal; and an active pixel area configured to output an active pixel signal for image generation; a first dummy pixel area disposed outside the active pixel area and configured to output a dummy pixel signal to correct image data generated from the active pixel signal; and a second dummy pixel area disposed outside the active pixel area and the first dummy pixel area and configured to not output any pixel signal; and a color separating lens array facing the sensor substrate, wherein the color separating lens array is configured to condense at least portion of a first light of a first wavelength incident on a region of the color separating lens array facing the second dummy pixel area of the sensor substrate, onto a first pixel in the first dummy pixel area of the sensor substrate, by changing a phase of the first light of the first wavelength.
A contact lens (100, 200) comprising: an anterior surface; a posterior surface; an edge joining the anterior and posterior surfaces (1, 2); the anterior and posterior surfaces (1, 2) forming a central optic zone and a peripheral zone (4, 5) outside the central optic zone; the peripheral zone (4, 5) having a thickness profile with a varying thickness for providing rotational force to tend to rotationally orient the contact lens (100, 200) in a target orientation, the thickness profile including substantially curvilinear lines (A-A, B-B) of substantially constant thickness that, when the lens (100, 200) is in the target orientation, extend generally horizontally across the lens (100, 200), characterized in that said lines of constant thickness (A-A, B-B) are located substantially along the intersection of a plane at different angles of rotation and the anterior and/or posterior surface (1, 2) of the contact lens, the plane having a substantially fixed axis of rotation posterior to the lens. an anterior surface; a posterior surface; an edge joining the anterior and posterior surfaces (1, 2); the anterior and posterior surfaces (1, 2) forming a central optic zone and a peripheral zone (4, 5) outside the central optic zone;
A high solids coating composition comprising (a) a thermosetting binder, (b) from 0.1 to 10 wt.% based on binder solids of solid polyurea particles prepared by the reaction of a mixture of a polyisocyanate and an amino reactant comprising a primary or secondary monoamine that optionally has a hydroxyl or ether group or both, and (c) from 5 to 20 wt.% based on binder solids of a cellulose mixed ester having a number average molecular weight of from 1000 to 5600, a polydispersity of from 1.2 to 3.5, and a total degree of substitution per anhydroglucose unit of from 3.08 to 3.5. (a) a thermosetting binder, (b) from 0.1 to 10 wt.% based on binder solids of solid polyurea particles prepared by the reaction of a mixture of a polyisocyanate and an amino reactant comprising a primary or secondary monoamine that optionally has a hydroxyl or ether group or both, and (c) from 5 to 20 wt.% based on binder solids of a cellulose mixed ester having a number average molecular weight of from 1000 to 5600, a polydispersity of from 1.2 to 3.5, and a total degree of substitution per anhydroglucose unit of from 3.08 to 3.5.
An eartip (110, 120) for an earphone (100, 101), the eartip (110, 120) comprising: a deformable eartip body (111, 121) configured to be at least partially inserted into an ear canal; and one or more anisotropic stiffness elements (112, 113, 122, 123) arranged in or on the eartip body (111, 121), wherein the one or more anisotropic stiffness elements (112, 113, 122, 123) are configured to provide a location-specific stiffness to the eartip body (111, 121); characterised in that the one or more anisotropic stiffness elements (112, 113, 122, 123) comprise a plurality of beams arranged inside the eartip body (111, 121); and wherein the one or more anisotropic stiffness elements (112, 113, 122, 123) further comprise a plurality of bonding structures interconnecting the plurality of beams. a deformable eartip body (111, 121) configured to be at least partially inserted into an ear canal; and one or more anisotropic stiffness elements (112, 113, 122, 123) arranged in or on the eartip body (111, 121), wherein the one or more anisotropic stiffness elements (112, 113, 122, 123) are configured to provide a location-specific stiffness to the eartip body (111, 121); characterised in that the one or more anisotropic stiffness elements (112, 113, 122, 123) comprise a plurality of beams arranged inside the eartip body (111, 121); and wherein the one or more anisotropic stiffness elements (112, 113, 122, 123) further comprise a plurality of bonding structures interconnecting the plurality of beams.
A fuel cell system comprising a fuel cell and a reactant supply for supplying a reactant comprising gaseous hydrogen and a poisoning species, to the fuel cell; the fuel cell comprising a membrane electrode assembly, the membrane electrode assembly comprising: a cathode substrate; an anode substrate; a proton exchange membrane disposed between the cathode substrate and the anode substrate; an electrochemically separating sublayer disposed between the proton exchange membrane and the anode substrate; a poison-scrubbing catalyst layer disposed between the electrochemically separating sublayer and the anode substrate; an anode electrocatalyst layer disposed between the proton exchange membrane and the electrochemically separating sublayer; and a cathode electrocatalyst layer disposed between the cathode substrate and the proton exchange membrane, characterized in that the electrochemically separating sublayer does not comprise cation conducting ionomer. a cathode substrate; an anode substrate; a proton exchange membrane disposed between the cathode substrate and the anode substrate; an electrochemically separating sublayer disposed between the proton exchange membrane and the anode substrate; a poison-scrubbing catalyst layer disposed between the electrochemically separating sublayer and the anode substrate; an anode electrocatalyst layer disposed between the proton exchange membrane and the electrochemically separating sublayer; and a cathode electrocatalyst layer disposed between the cathode substrate and the proton exchange membrane, characterized in that the electrochemically separating sublayer does not comprise cation conducting ionomer.
A genetically modified Clostridium acetobutylicum wherein the main [Fe-Fe]-hydrogenase encoding gene, hydA, and the main thiolase encoding gene, thlA, are attenuated to such as extend that the said Clostridium acetobutylicum is unable to produce hydrogen.
An arrangement for determining the angular position of a rotatably mounted part, wherein at least one permanent magnet is arranged on the rotatably mounted part, wherein a first sensor for detecting the angular position of the permanent magnet is arranged on a first side of a printed circuit board, wherein a second sensor for detecting the angular position of the permanent magnet is arranged on the printed circuit board, wherein the first and second sensor (2, 7) function to detect the angular position of the permanent magnet according to various principles of operation, wherein the first sensor is arranged on that side of the printed circuit board which faces the permanent magnet, wherein the second sensor is arranged on that side of the printed circuit board which is remote from the permanent magnet, characterised in that the first sensor is a cross Hall-effect sensor, wherein the failure or the faulty operation of one of the sensors (2, 7) can be recognised by means of an evaluation circuit and thereupon only the signals of one of the sensors (2, 7) are used for determining the angular position, wherein the permanent magnet is connected in a positively locking manner to a receiving part connected to the rotatably mounted part, or is connected directly to the rotatably mounted part, wherein the permanent magnet is embodied as a cuboid magnet body or as a round magnet, wherein the permanent magnet has a radially running groove and/or a radially running slot, by means of which the positive connection to the receiving part or rotatably mounted shaft is carried out.
A heavy wall thickness high-strength steel plate with an excellent CTOD property of a heat-affected zone, the steel plate having a chemical composition constituted of, by mass%, C: 0.020% or more and 0.080% or less, Si: 0.01% or more and 0.35% or less, Mn: more than 1.50% and 2.30% or less, P: 0.008% or less, S: 0.0035% or less, Al: 0.010% or more and 0.060% or less, Cu: 0.70% or more and 1.50% or less, Ni: 0.40% or more and 2.00% or less, Nb: 0.005% or more and 0.040% or less, Ti: 0.005% or more and 0.025% or less, N: 0.0020% or more and 0.0050% or less, O: 0.0030% or less, wherein Ceq which is defined by relational expression is 0.520% or less, wherein Ti/N (mass ratio) is 1.50 or more and 4.00 or less, wherein relational expression is satisfied, and wherein the hardness of a center segregation part satisfies relational expression: Ceq = C + Mn / 6 + Cu + Ni / 15 + Cr + Mo + V / 5 5.5 C 4 / 3 + 15 P + 0.90 Mn + 0.12 Ni + 7.9 Nb 1 / 2 + 0.53 Mo ≤ 3.50 where symbol represents the content (mass%) of the chemical element represented by symbol M, H Vmax / H Vave ≤ 1.35 + 0.006 / C − t / 500 where H Vmax represents a maximum value of the Vickers hardness of a center segregation part, H Vave represents an average value of the Vickers hardness of the portions other than portions within 1/4 of the thickness from the upper and lower surfaces of the steel plate and the center segregation part, represents C content (mass%), and t represents the thickness of the steel plate (mm), the chemical composition optionally further constituted of, by mass%, Ca: 0.0005% or more and 0.0050% or less, and optionally further constituted of, by mass%, one, two, or more selected from among Cr: 0.10% or more and 1.00% or less, Mo: 0.05% or more and 0.50% or less, and V: 0.005% or more and 0.050% or less; and wherein the balance is Fe and inevitable impurities.
Method for operating a headlight device of a motor vehicle, wherein the headlight device comprises a projector and a control unit, which is designed for controlling the projector for projecting a predefined light pattern in a predetermined projection region of the projector, wherein the light pattern in a polygon operating mode of the headlight device comprises a polygon mesh with polygon surfaces which are defined by projection points as corner points and have polygon edges and the polygon surfaces are assigned at least in part different projection brightnesses, characterized in that at least one physical property is assigned to at least one polygon feature of the polygon surfaces, in particular to at least the corner points, wherein for the dynamic adaptation of the light pattern in a dynamic submode of the polygon operating mode: - up-to-date operating data of the motor vehicle and/or measurement data of the motor vehicle are recorded which describe the driving state of the motor vehicle and/or environmental features relevant to the physical property in an environment of the motor vehicle encompassing the projection region, - on the basis of the operating data and/or measurement data, an environment model is provided at least for the projection region, and - the polygon mesh is adapted before the output of the light pattern on the basis of computationally determined adaptation information describing a virtual physical interaction of the polygon surfaces with the environment model on account of the at least one assigned physical property. - up-to-date operating data of the motor vehicle and/or measurement data of the motor vehicle are recorded which describe the driving state of the motor vehicle and/or environmental features relevant to the physical property in an environment of the motor vehicle encompassing the projection region, - on the basis of the operating data and/or measurement data, an environment model is provided at least for the projection region, and - the polygon mesh is adapted before the output of the light pattern on the basis of computationally determined adaptation information describing a virtual physical interaction of the polygon surfaces with the environment model on account of the at least one assigned physical property.
A power tool comprising:- a housing; an adjustment dial mounted to the housing; a first rotary member having a first axis of rotation and adapted to be rotated by means of the adjustment dial; a control circuit for adjusting a setting of the tool; and a second rotary member having a second axis of rotation, not coincident with said first axis of rotation, and adapted to rotate as a result of rotation of said first rotary member to transfer torque from said first rotary member to an input of the control circuit to adjust a setting of the tool, wherein limited movement of said first rotary member relative to said second rotary member is possible to reduce transmission of impacts from the adjustment dial to the input of the control circuit; wherein the first rotary member is connected to the second rotary member by means of a support, wherein the support is adapted to deform to permit limited movement of said first rotary member relative to said second rotary member; characterised in that the support comprises a first support portion for supporting the first rotary member and a second support portion for supporting the second rotary member, such that limited movement of said first rotary member relative to said second rotary member is possible; wherein the first and second support portions (36; 38) are adapted to deform by flexible deformation to permit limited movement of said first rotary member relative to said second rotary member; wherein the support comprises at least one elongate aperture between said first and second support portions (36, 38). a housing; an adjustment dial mounted to the housing; a first rotary member having a first axis of rotation and adapted to be rotated by means of the adjustment dial; a control circuit for adjusting a setting of the tool; and a second rotary member having a second axis of rotation, not coincident with said first axis of rotation, and adapted to rotate as a result of rotation of said first rotary member to transfer torque from said first rotary member to an input of the control circuit to adjust a setting of the tool, wherein limited movement of said first rotary member relative to said second rotary member is possible to reduce transmission of impacts from the adjustment dial to the input of the control circuit; wherein the first rotary member is connected to the second rotary member by means of a support, wherein the support is adapted to deform to permit limited movement of said first rotary member relative to said second rotary member; characterised in that the support comprises a first support portion for supporting the first rotary member and a second support portion for supporting the second rotary member, such that limited movement of said first rotary member relative to said second rotary member is possible; wherein the first and second support portions (36; 38) are adapted to deform by flexible deformation to permit limited movement of said first rotary member relative to said second rotary member; wherein the support comprises at least one elongate aperture between said first and second support portions (36, 38).
A method for manufacturing a dielectric sheet, comprising the steps of: extrusion molding a mixture including powder polytetrafluoroethylene and spherical silica at a temperature lower than or equal to a melting point of the polytetrafluoroethylene; and calendering a sheet body obtained by the extrusion molding, wherein a mass ratio of the silica with respect to the polytetrafluoroethylene is 1.3 or greater, an average particle diameter of the silica is 0.1 μm or greater but 3.0 μm or less, and a reduction ratio of the extrusion molding is 8 or less. extrusion molding a mixture including powder polytetrafluoroethylene and spherical silica at a temperature lower than or equal to a melting point of the polytetrafluoroethylene; and calendering a sheet body obtained by the extrusion molding, wherein a mass ratio of the silica with respect to the polytetrafluoroethylene is 1.3 or greater, an average particle diameter of the silica is 0.1 μm or greater but 3.0 μm or less, and a reduction ratio of the extrusion molding is 8 or less.
A system comprising: a communication gateway unit, CGU, located at a first location of a vehicle, the CGU comprising: a communication processor circuit; a first power supply; and a first data interface; a remote wireless transceiver unit, RWTU, located at a second location of the vehicle, the RWTU comprising: a second data interface coupled to the first data interface using two or more data links; a power interface configured to couple the first power supply to the RWTU using two or more power lines; and one or more wireless transceivers (211, 212, 213) coupled to one or more antennas (215a-215c) on the vehicle, wherein the second location is closer to each of the one or more antennas than the first location; and one or more storage devices storing instructions that, when executed by the communication processor circuit, cause the communication processor circuit to: monitor data traffic on a first data link between the first data interface and the second data interface; in response to a detection of a loss or a disruption of the first data link, select a second data link to transfer data between the first data interface and the second data interface. a communication gateway unit, CGU, located at a first location of a vehicle, the CGU comprising: a communication processor circuit; a first power supply; and a first data interface; a communication processor circuit; a first power supply; and a first data interface; a remote wireless transceiver unit, RWTU, located at a second location of the vehicle, the RWTU comprising: a second data interface coupled to the first data interface using two or more data links; a power interface configured to couple the first power supply to the RWTU using two or more power lines; and one or more wireless transceivers (211, 212, 213) coupled to one or more antennas (215a-215c) on the vehicle, wherein the second location is closer to each of the one or more antennas than the first location; and a second data interface coupled to the first data interface using two or more data links; a power interface configured to couple the first power supply to the RWTU using two or more power lines; and one or more wireless transceivers (211, 212, 213) coupled to one or more antennas (215a-215c) on the vehicle, wherein the second location is closer to each of the one or more antennas than the first location; and one or more storage devices storing instructions that, when executed by the communication processor circuit, cause the communication processor circuit to: monitor data traffic on a first data link between the first data interface and the second data interface; in response to a detection of a loss or a disruption of the first data link, select a second data link to transfer data between the first data interface and the second data interface. monitor data traffic on a first data link between the first data interface and the second data interface; in response to a detection of a loss or a disruption of the first data link, select a second data link to transfer data between the first data interface and the second data interface.