mhurhangee/ep-ind-claims huggingface dataset:
A torque fluctuation absorbing apparatus comprising: a rotatably-arranged first rotary member; a second rotary member arranged rotatably relative to the first rotary member; a damper part that absorbs fluctuating torque caused by torsion between the first rotary member and the second rotary member, the damper part being accommodated in an interior space surrounded by the first rotary member and the second rotary member; a seal member (60; 64) that seals a clearance between the first rotary member and the second rotary member to seal in a fluid stored in the interior space; wherein the first rotary member has a cylindrical portion extending toward the second rotary member in an axial direction at a position farther from a rotational axis of the first rotary member than the seal member, the cylindrical portion has a seal surface that is flat in a rotational axis direction on an inner peripheral surface, and the seal member is in elastic contact with the seal surface, characterized in that the cylindrical portion has an annular protruding portion acting as a partitioning section (23c; 25; 26) protruding in a radially inward direction from the seal surface, defining a fluid storing part that adjusts entrance/exit of the fluid stored in the interior space and stores the fluid lubricating the seal member. a rotatably-arranged first rotary member; a second rotary member arranged rotatably relative to the first rotary member; a damper part that absorbs fluctuating torque caused by torsion between the first rotary member and the second rotary member, the damper part being accommodated in an interior space surrounded by the first rotary member and the second rotary member; a seal member (60; 64) that seals a clearance between the first rotary member and the second rotary member to seal in a fluid stored in the interior space; wherein the first rotary member has a cylindrical portion extending toward the second rotary member in an axial direction at a position farther from a rotational axis of the first rotary member than the seal member, the cylindrical portion has a seal surface that is flat in a rotational axis direction on an inner peripheral surface, and the seal member is in elastic contact with the seal surface, characterized in that the cylindrical portion has an annular protruding portion acting as a partitioning section (23c; 25; 26) protruding in a radially inward direction from the seal surface, defining a fluid storing part that adjusts entrance/exit of the fluid stored in the interior space and stores the fluid lubricating the seal member.
A method of performing channel estimation in a wireless communication system, said method comprising: a) performing rough channel estimation by dividing a received signal by corresponding pilot reference signals to obtain a channel frequency response ( Ĥ); b) converting said obtained channel frequency response ( Ĥ) into the time domain to obtain a channel impulse response ( ĥ); c) multiplying said channel impulse response ( ĥ) by a window function ( w) to suppress noise components and obtain an improved channel impulse response ( h̃); characterized by d) delaying said obtained channel frequency response ( Ĥ) by a time period which corresponds to a time gap between consecutive pilot reference signal transmissions; and e) controlling coefficients ( w) of said window function based on a difference between said delayed channel frequency response ( Ĥ -) and an improved channel frequency response ( H̃) obtained by converting said improved channel impulse response ( h̃) to the frequency domain. a) performing rough channel estimation by dividing a received signal by corresponding pilot reference signals to obtain a channel frequency response ( Ĥ); b) converting said obtained channel frequency response ( Ĥ) into the time domain to obtain a channel impulse response ( ĥ); c) multiplying said channel impulse response ( ĥ) by a window function ( w) to suppress noise components and obtain an improved channel impulse response ( h̃); d) delaying said obtained channel frequency response ( Ĥ) by a time period which corresponds to a time gap between consecutive pilot reference signal transmissions; and e) controlling coefficients ( w) of said window function based on a difference between said delayed channel frequency response ( Ĥ -) and an improved channel frequency response ( H̃) obtained by converting said improved channel impulse response ( h̃) to the frequency domain.
A method for non-uniform mapping for quantization matrix coefficients between different sizes of quantization matrices in image/video decoding performed by a decoder, the method comprising: • obtaining a first quantization matrix, the first quantization matrix being contained in a bitstream received by the decoder from an encoder; • identifying a second quantization matrix to be formed from the first quantization matrix, the second quantization matrix being a factor of two larger than the first quantization matrix; • identifying a most upper left portion of the first quantization matrix defined by a pair of offset values, wherein the pair of offset values includes a horizontal frequency position offset and a vertical frequency position offset, the pair of offset values being contained in the received bitstream; • directly mapping values in the portion of the first quantization matrix defined by the offset values into a most upper left portion of the second quantization matrix, and mapping up-sampling values of the first quantization matrix into a remaining portion of the second quantization matrix. • obtaining a first quantization matrix, the first quantization matrix being contained in a bitstream received by the decoder from an encoder; • identifying a second quantization matrix to be formed from the first quantization matrix, the second quantization matrix being a factor of two larger than the first quantization matrix; • identifying a most upper left portion of the first quantization matrix defined by a pair of offset values, wherein the pair of offset values includes a horizontal frequency position offset and a vertical frequency position offset, the pair of offset values being contained in the received bitstream; • directly mapping values in the portion of the first quantization matrix defined by the offset values into a most upper left portion of the second quantization matrix, and mapping up-sampling values of the first quantization matrix into a remaining portion of the second quantization matrix.
An agonist of miR-206 and/or miR-1 for use in treating a subject afflicted with a denervating neuropathic state, wherein the agonist is a polynucleotide comprising a pri-miRNA, pre-miRNA or mature sequence of miR-206 and/or miR-1, and wherein the denervating neuropathic state is amyotrophic lateral sclerosis or peripheral nerve injury.
An intraocular lens configured to be implanted within a capsular bag of a patient's eye, the lens comprising: a fluid optic body, the fluid optical body comprising: a first optical membrane configured to extend across an optical axis of the patient's eye; a second optical membrane configured to extend across the optical axis; and a sidewall extending between the first optical membrane and the second optical membrane, the first optical membrane, the second optical membrane, and the sidewall defining a cavity for containing an optical fluid; and a plurality of lever arms extending from the optic body and configured to be in contact with the capsular bag such that axial compression of the capsular bag causes each of the plurality of lever arms to rotate about a corresponding pivot so as to modify a curvature of the first optical membrane, characterised in that the intraocular lens further comprises an additional plurality of lever arms extending from the optic body and configured to be in contact with the capsular bag such that axial compression of the capsular bag causes each of the additional plurality of lever arms to rotate about a corresponding pivot so as to modify a curvature of the second optical membrane, and in that axial compression of the capsular bag causes each of the plurality of lever arms to rotate about the corresponding pivot in a first direction, and each of the additional plurality of lever arms to rotate about the corresponding pivot in a second direction, the second direction being opposite the first direction. a first optical membrane configured to extend across an optical axis of the patient's eye; a second optical membrane configured to extend across the optical axis; and a sidewall extending between the first optical membrane and the second optical membrane, the first optical membrane, the second optical membrane, and the sidewall defining a cavity for containing an optical fluid; and a plurality of lever arms extending from the optic body and configured to be in contact with the capsular bag such that axial compression of the capsular bag causes each of the plurality of lever arms to rotate about a corresponding pivot so as to modify a curvature of the first optical membrane, characterised in that the intraocular lens further comprises an additional plurality of lever arms extending from the optic body and configured to be in contact with the capsular bag such that axial compression of the capsular bag causes each of the additional plurality of lever arms to rotate about a corresponding pivot so as to modify a curvature of the second optical membrane, and in that axial compression of the capsular bag causes each of the plurality of lever arms to rotate about the corresponding pivot in a first direction, and each of the additional plurality of lever arms to rotate about the corresponding pivot in a second direction, the second direction being opposite the first direction.
Gear wheel, comprising - an insertion part, which comprises an insertion part out diameter (dEa) and a reception segment with a torque transmitting diameter (dD) for forming a connection to an adjacently arranged component, and - a connection part with a gear rim, connected to the insertion part in a form-locking and/or material-locking and/or friction-locking manner - wherein the connection part comprises numerous ribs or the connection part is formed of numerous ribs, - each of the ribs extend along a tangent which adjoins to a tangent circle, - the ribs comprise a rib thickness, and - the tangent circle comprises a tangent circle diameter (dCT) which is larger than or equal to the torque transmitting diameter (dD) and smaller than or equal to a maximum diameter (dA), characterized in that the maximum diameter (dA) is defined as follows: dA = dEa + 6 RB. - an insertion part, which comprises an insertion part out diameter (dEa) and a reception segment with a torque transmitting diameter (dD) for forming a connection to an adjacently arranged component, and - a connection part with a gear rim, connected to the insertion part in a form-locking and/or material-locking and/or friction-locking manner - wherein the connection part comprises numerous ribs or the connection part is formed of numerous ribs, - each of the ribs extend along a tangent which adjoins to a tangent circle, - the ribs comprise a rib thickness, and - the tangent circle comprises a tangent circle diameter (dCT) which is larger than or equal to the torque transmitting diameter (dD) and smaller than or equal to a maximum diameter (dA),
A system comprising: one or more processing units that execute computer-readable instructions that cause the one or more processing units to: acquire blockchain data from a blockchain network, wherein the blockchain data includes a plurality of transactions between a plurality of blockchain addresses; label a set of the blockchain addresses as fraudulent; generate a graph data structure based on the blockchain data, wherein the graph data structure includes nodes for the blockchain addresses and includes edges between the nodes for blockchain transactions; calculate a set of scoring features for each blockchain address, wherein each set of scoring features includes a graph-based scoring feature, and wherein calculating the graph-based scoring feature includes calculating a number of transactions associated with the blockchain address in the graph data structure; generate a scoring model using sets of scoring features for the blockchain addresses that are labeled as fraudulent; generate a trust score for each of the blockchain addresses using the scoring features associated with the blockchain addresses and the scoring model, wherein the trust score indicates a likelihood that the blockchain address is involved in fraudulent activity; generate a graphical user interface to be displayed at a requesting device; receive a trust request for a specified blockchain address from the requesting device via the displayed GUI; and send the trust score for the specified blockchain address to the requesting device to be displayed via the GUI. acquire blockchain data from a blockchain network, wherein the blockchain data includes a plurality of transactions between a plurality of blockchain addresses; label a set of the blockchain addresses as fraudulent; generate a graph data structure based on the blockchain data, wherein the graph data structure includes nodes for the blockchain addresses and includes edges between the nodes for blockchain transactions; calculate a set of scoring features for each blockchain address, wherein each set of scoring features includes a graph-based scoring feature, and wherein calculating the graph-based scoring feature includes calculating a number of transactions associated with the blockchain address in the graph data structure; generate a scoring model using sets of scoring features for the blockchain addresses that are labeled as fraudulent; generate a trust score for each of the blockchain addresses using the scoring features associated with the blockchain addresses and the scoring model, wherein the trust score indicates a likelihood that the blockchain address is involved in fraudulent activity; generate a graphical user interface to be displayed at a requesting device; receive a trust request for a specified blockchain address from the requesting device via the displayed GUI; and send the trust score for the specified blockchain address to the requesting device to be displayed via the GUI.
A latch assembly for engaging a substantially smooth bore, the latch assembly comprising: at least one spiral wound spring; at least one recess in which the spring is received, the recess and the spring therein extending circumferentially relative to a stinger; and a ramp on the stinger, the ramp operative to outwardly displace the spring relative to the recess in response to displacement of the spring relative to the ramp; and a biasing device which biases the spring across a surface of the ramp. at least one spiral wound spring; at least one recess in which the spring is received, the recess and the spring therein extending circumferentially relative to a stinger; and a ramp on the stinger, the ramp operative to outwardly displace the spring relative to the recess in response to displacement of the spring relative to the ramp; and a biasing device which biases the spring across a surface of the ramp.
An electronic device (101;201) comprising: a biometric sensor (180;2401); at least one processor (120;210); a display (160, 260); and a memory (130;230) electrically coupled to the at least one processor, stores biometric information and a plurality of contents matched with the biometric information, and instructions executable by the at least one processor to: display a screen including a password input area by executing an application or a web page; through the biometric sensor, receive from a user biometric information including a plurality of biometric markers; detect, when the received biometric information is authenticated, stored contents matching with each respective biometric markers; generate a single new content based on the detected contents; and control the display to display a screen wherein the new content is input in the password input area, the new content comprising access information for the application or the web page. a biometric sensor (180;2401); at least one processor (120;210); a display (160, 260); and a memory (130;230) electrically coupled to the at least one processor, stores biometric information and a plurality of contents matched with the biometric information, and instructions executable by the at least one processor to: display a screen including a password input area by executing an application or a web page; through the biometric sensor, receive from a user biometric information including a plurality of biometric markers; detect, when the received biometric information is authenticated, stored contents matching with each respective biometric markers; generate a single new content based on the detected contents; and control the display to display a screen wherein the new content is input in the password input area, display a screen including a password input area by executing an application or a web page; through the biometric sensor, receive from a user biometric information including a plurality of biometric markers; detect, when the received biometric information is authenticated, stored contents matching with each respective biometric markers; generate a single new content based on the detected contents; and control the display to display a screen wherein the new content is input in the password input area, the new content comprising access information for the application or the web page.
A display substrate for an OLED display, comprising: a base, comprising a display region and a non-display region around the display region; at least one protrusion on the base in the non-display region; and a packaging layer, arranged on the base, the protrusion being positioned between the base and the packaging layer, and the packaging layer covering at least a portion of the protrusion, wherein the protrusion at least includes a first protrusion and a second protrusion which are sequentially arranged around the display region, the first protrusion and the second protrusion are adjacently arranged, and the first protrusion is positioned closer to the display region as compared with the second protrusion; in a direction perpendicular to a plane where the base is positioned, a height of the second protrusion is greater than that of the first protrusion, characterized in that a difference between the height of the second protrusion and the height of the first protrusion is 0.5 to 3 microns, the height of the protrusion is 2 to 15 microns: in a direction parallel to the plane where the base is positioned, a width of the protrusion is 30 to 100 microns, and in the direction parallel to the plane where the base is positioned, a spacing between the first protrusion and the second protrusion is 30 to 100 microns. a base, comprising a display region and a non-display region around the display region; at least one protrusion on the base in the non-display region; and a packaging layer, arranged on the base, the protrusion being positioned between the base and the packaging layer, and the packaging layer covering at least a portion of the protrusion, wherein the protrusion at least includes a first protrusion and a second protrusion which are sequentially arranged around the display region, the first protrusion and the second protrusion are adjacently arranged, and the first protrusion is positioned closer to the display region as compared with the second protrusion; in a direction perpendicular to a plane where the base is positioned, a height of the second protrusion is greater than that of the first protrusion, characterized in that a difference between the height of the second protrusion and the height of the first protrusion is 0.5 to 3 microns, the height of the protrusion is 2 to 15 microns: in a direction parallel to the plane where the base is positioned, a width of the protrusion is 30 to 100 microns, and in the direction parallel to the plane where the base is positioned, a spacing between the first protrusion and the second protrusion is 30 to 100 microns. in a direction parallel to the plane where the base is positioned, a width of the protrusion is 30 to 100 microns, and in the direction parallel to the plane where the base is positioned, a spacing between the first protrusion and the second protrusion is 30 to 100 microns.
A method for manufacturing a polyarylene sulfide resin comprising: reacting a sulfoxide represented by the following formula with an aromatic compound represented by the following formula to obtain a poly(arylenesulfonium salt) having a constitutional unit represented by the following formula; and dealkylating or dearylating the poly(arylenesulfonium salt) to obtain a polyarylene sulfide resin having a constitutional unit represented by the following formula: Ar 3a -R 2a wherein in formula,, or, R 1 represents an alkyl group having 1 to 10 carbon atoms or an aryl group optionally having an alkyl group having 1 to 10 carbon atoms; R 2a represents a hydrogen atom, an alkyl group having 1 to 10 carbon atoms, -Ar 4, -S-Ar 4, -O-Ar 4, -CO-Ar 4, -SO 2 -Ar 4 or -C(CF 3) 2 -Ar 4; R 2b represents a direct bond, -Ar 6 -, -S-Ar 6 -, -O-Ar 6 -, -CO-Ar 6 -, -SO 2 -Ar 6 - or -C(CF 3) 2 -Ar 6 -; Ar 1, Ar 2, Ar 3b and Ar 6 each independently represent an arylene group optionally having a substituent; Ar 3a and Ar 4 each independently represent an aryl group optionally having a substituent; Z represents a direct bond, -S-, -O-, -CO-, -SO 2 - or -C(CF 3) 2 -; and X - represents an anion. reacting a sulfoxide represented by the following formula with an aromatic compound represented by the following formula to obtain a poly(arylenesulfonium salt) having a constitutional unit represented by the following formula; and dealkylating or dearylating the poly(arylenesulfonium salt) to obtain a polyarylene sulfide resin having a constitutional unit represented by the following formula: Ar 3a -R 2a wherein in formula,, or, R 1 represents an alkyl group having 1 to 10 carbon atoms or an aryl group optionally having an alkyl group having 1 to 10 carbon atoms; R 2a represents a hydrogen atom, an alkyl group having 1 to 10 carbon atoms, -Ar 4, -S-Ar 4, -O-Ar 4, -CO-Ar 4, -SO 2 -Ar 4 or -C(CF 3) 2 -Ar 4; R 2b represents a direct bond, -Ar 6 -, -S-Ar 6 -, -O-Ar 6 -, -CO-Ar 6 -, -SO 2 -Ar 6 - or -C(CF 3) 2 -Ar 6 -; Ar 1, Ar 2, Ar 3b and Ar 6 each independently represent an arylene group optionally having a substituent; Ar 3a and Ar 4 each independently represent an aryl group optionally having a substituent; Z represents a direct bond, -S-, -O-, -CO-, -SO 2 - or -C(CF 3) 2 -; and X - represents an anion. R 1 represents an alkyl group having 1 to 10 carbon atoms or an aryl group optionally having an alkyl group having 1 to 10 carbon atoms; R 2a represents a hydrogen atom, an alkyl group having 1 to 10 carbon atoms, -Ar 4, -S-Ar 4, -O-Ar 4, -CO-Ar 4, -SO 2 -Ar 4 or -C(CF 3) 2 -Ar 4; R 2b represents a direct bond, -Ar 6 -, -S-Ar 6 -, -O-Ar 6 -, -CO-Ar 6 -, -SO 2 -Ar 6 - or -C(CF 3) 2 -Ar 6 -; Ar 1, Ar 2, Ar 3b and Ar 6 each independently represent an arylene group optionally having a substituent; Ar 3a and Ar 4 each independently represent an aryl group optionally having a substituent; Z represents a direct bond, -S-, -O-, -CO-, -SO 2 - or -C(CF 3) 2 -; and X - represents an anion.