mhurhangee/ep-ind-claims huggingface dataset:
System for providing information representing a vibrational state for the operation of vibration emitting machines, in particular construction machines, comprising: - at least one measuring station (12, 12', 12") with at least one sensor for detecting at least one parameter in relation to the vibrational state and with a radio transmitter unit for emitting a radio output signal in relation to the parameter, - at least one receiver station (16, 16', 16") for receiving the radio output signal of the at least one measuring station (12, 12', 12"), characterized by the at least one measuring station (12, 12', 12") comprising an evaluation unit receiving a sensor signal from the at least one sensor for providing an evaluation signal representing the vibration condition on the basis of the sensor signal, said radio transmitter unit generating the radio output signal on the basis of the evaluation signal. - at least one measuring station (12, 12', 12") with at least one sensor for detecting at least one parameter in relation to the vibrational state and with a radio transmitter unit for emitting a radio output signal in relation to the parameter, - at least one receiver station (16, 16', 16") for receiving the radio output signal of the at least one measuring station (12, 12', 12"),
A proximity sensor assembly having a base and at least one support which carries at least one proximity sensor having a measuring electrode and a shield electrode extending between the measuring electrode and a surface, characterized in that a printed circuit board carrying contact surfaces (35, 37) is mounted on said surface of the base, in that the support has contact surfaces (36, 38) complementary to the contact surfaces (35, 37) of the printed circuit board, and that, in order to bring into electrical contact the contact surfaces (35, 36, 37, 38) of the printed circuit board and of the support, the base and the support are plug-in connected in a plug-in direction (R, L) parallel to the surface, and in that the measuring and shield electrodes (8, 9) are electrically connected to the contact surfaces (36, 38) of the support.
A tool assembly for machining the lateral surface of a composite wood board, comprising a support and a means for pressing the support against the composite wood board to be machined, the support comprising a first and a second support element (4a, 4b) that are connected by means of a joint and the second support element comprising means for detecting the thickness of the composite wood board, a tool and means for centering the tool, the means for detecting the thickness of the composite wood board being designed as a pressure device comprising at least one immovable (30a, 30b) and at least one vertically movable pressure element (36a, 36b), the pressure elements being fastened on an axle formed on the support, the movable pressure element (36a, 36b) being fastened to the axle by means of a lever, characterized in that the means for centering comprise a guide element and a centering pin, a first end of the centering pin being connected to the lever of the movable pressure element and a second end of the centering pin being engaged with a guide rule attached to the second support element and the centering pin being rigidly connected to the guide element.
A pharmaceutical composition comprising a CR2-FH molecule for use in a method of treating a subject having paroxysmal nocturnal hemoglobinuria in combination with a terminal complement inhibitor, said CR2-FH molecule comprising: (a) a CR2 portion comprising a CR2 or a fragment thereof; and (b) a FH portion comprising a FH or a fragment thereof, wherein said CR2 portion of the CR2-FH molecule is capable of binding to a CR2 ligand, and wherein said FH portion of the CR2-FH molecule is capable of inhibiting complement activation of the alternative pathway. (a) a CR2 portion comprising a CR2 or a fragment thereof; and (b) a FH portion comprising a FH or a fragment thereof,
A foldable electronic device comprising: a first housing; a second housing; a display, wherein at least a portion of the display is positioned on the first housing and at least another portion of the display is disposed on the second housing; a hinge structure coupling the first housing and the second housing; and a hinge housing, into which at least a portion of the hinge structure is configured to be accommodated; wherein the hinge structure includes: a first rotary member coupled to the first housing and configured to be rotated about a first axis; a second rotary member coupled to the second housing and configured to be rotated about a second axis; a first rotary shaft; and a second rotary shaft a first arm part disposed adjacent to the first rotary member and including a first rotary shaft hole (221_4a) into which the first rotary shaft is inserted; a second arm part disposed adjacent to the second rotary member and including a second rotary shaft hole (222_4a) into which the second rotary shaft is inserted; characterized in that the foldable electronic device further comprises: a first link coupling the first rotary member and the first arm part; a second link coupling the second rotary member and the second arm part; a first actuator coupled to the first link and configured to provide rotational force; and a second actuator coupled to the second link and configured to provide rotational force. a first housing; a second housing; a display, wherein at least a portion of the display is positioned on the first housing and at least another portion of the display is disposed on the second housing; a hinge structure coupling the first housing and the second housing; and a hinge housing, into which at least a portion of the hinge structure is configured to be accommodated; wherein the hinge structure includes: a first rotary member coupled to the first housing and configured to be rotated about a first axis; a second rotary member coupled to the second housing and configured to be rotated about a second axis; a first rotary shaft; and a second rotary shaft a first rotary shaft; and a second rotary shaft a first arm part disposed adjacent to the first rotary member and including a first rotary shaft hole (221_4a) into which the first rotary shaft is inserted; a second arm part disposed adjacent to the second rotary member and including a second rotary shaft hole (222_4a) into which the second rotary shaft is inserted; characterized in that the foldable electronic device further comprises: a first link coupling the first rotary member and the first arm part; a second link coupling the second rotary member and the second arm part; a first actuator coupled to the first link and configured to provide rotational force; and a second actuator coupled to the second link and configured to provide rotational force. a first link coupling the first rotary member and the first arm part; a second link coupling the second rotary member and the second arm part; a first actuator coupled to the first link and configured to provide rotational force; and a second actuator coupled to the second link and configured to provide rotational force.
A method for targeted genomic engineering in an algal cell comprising introducing at least an endonuclease variant in said algal cell to induce a double-stranded cleavage at a site of interest into the nuclear genome of said algal cell, wherein said endonuclease variant is obtained by genetic engineering or by random mutation from a wild-type endonuclease, and recognizes and specifically cleaves a target sequence that is different from the target sequence of the corresponding wild-type endonuclease and wherein said algal cell is a diatom.
A rotary engine rotor comprising three rotor flanks arranged in a generally equilateral triangle shape, each rotor flank having a leading edge and a trailing edge, wherein the leading edge of at least one of the rotor flanks comprises an elongate lip that extends the full axial length of the rotor flank, characterised in that the at least one rotor flank further comprises a generally outwardly curved profile from the lip to the trailing edge of the rotor flank. wherein the leading edge of at least one of the rotor flanks comprises an elongate lip that extends the full axial length of the rotor flank, characterised in that the at least one rotor flank further comprises a generally outwardly curved profile from the lip to the trailing edge of the rotor flank.
A method for enhancing plant growth, crop yield or both, the method comprising the step of applying at least one natamycin producing bacterial strain to a plant.
A method for purifying a mixture of cysteine-linked antibody-drug conjugates of formula wherein Ab is an antibody, L is a linking group selected from and V 1 is a conditionally-cleavable dipeptide of natural and/or unnatural amino acids, CL is a cyclization linker selected from wherein n is an integer of from 1 to 16, R is selected from H, CH 3, CH 2 CH 3, OCH 3, OCH 2 CH 3, CF 3, OCF 3, Cl, F, q ranges from 0 to 8, and DB is a DNA binding moiety selected from wherein the amount of non-conjugated antibody is in the range of 10-40% by weight comprising: a. providing the mixture in a 0.2-1.5 M aqueous salt solution; b. loading said solution onto a preparative hydrophobic interaction chromatography column; c. collecting a flow-through fraction that contains non-conjugated antibody; d. washing said column with a 0.2-1.5 M aqueous salt solution while collecting the flow-through fraction; and e. eluting said column with a 0-100 mM aqueous salt solution to obtain a purified mixture of cysteine-linked antibody-drug conjugates; wherein no added organic solvent is used in either step a, b, d or e. Ab is an antibody, L is a linking group selected from and V 1 is a conditionally-cleavable dipeptide of natural and/or unnatural amino acids, CL is a cyclization linker selected from wherein n is an integer of from 1 to 16, R is selected from H, CH 3, CH 2 CH 3, OCH 3, OCH 2 CH 3, CF 3, OCF 3, Cl, F, q ranges from 0 to 8, and DB is a DNA binding moiety selected from wherein the amount of non-conjugated antibody is in the range of 10-40% by weight comprising: a. providing the mixture in a 0.2-1.5 M aqueous salt solution; b. loading said solution onto a preparative hydrophobic interaction chromatography column; c. collecting a flow-through fraction that contains non-conjugated antibody; d. washing said column with a 0.2-1.5 M aqueous salt solution while collecting the flow-through fraction; and e. eluting said column with a 0-100 mM aqueous salt solution to obtain a purified mixture of cysteine-linked antibody-drug conjugates; a. providing the mixture in a 0.2-1.5 M aqueous salt solution; b. loading said solution onto a preparative hydrophobic interaction chromatography column; c. collecting a flow-through fraction that contains non-conjugated antibody; d. washing said column with a 0.2-1.5 M aqueous salt solution while collecting the flow-through fraction; and e. eluting said column with a 0-100 mM aqueous salt solution to obtain a purified mixture of cysteine-linked antibody-drug conjugates; wherein no added organic solvent is used in either step a, b, d or e.
One or more vectors configured to express a Cas9-nucleic acid complex that targets a PD-1 or PD-L1 nucleic acid, comprising: a sequence encoding a Cas9 protein, wherein the sequence is a Francisella novicida Cas9 protein sequence, and wherein the Cas9 protein comprises an arginine-rich motif with at least 90% identity to SEQ ID NO: 6, a RuvC-III motif with at least 90% identity to SEQ ID NO: 7, and a RuvC-IV motif with at least 90% identity to SEQ ID NO: 8, and a sequence encoding an RNA, wherein the RNA comprises a first segment that is configured to bind with the Cas9 protein after transcription and a second segment that is configured to bind a target nucleic acid sequence, wherein the target sequence is the mRNA transcript of PD-1 or PD-L1. a sequence encoding a Cas9 protein, wherein the sequence is a Francisella novicida Cas9 protein sequence, and wherein the Cas9 protein comprises an arginine-rich motif with at least 90% identity to SEQ ID NO: 6, a RuvC-III motif with at least 90% identity to SEQ ID NO: 7, and a RuvC-IV motif with at least 90% identity to SEQ ID NO: 8, and a sequence encoding an RNA, wherein the RNA comprises a first segment that is configured to bind with the Cas9 protein after transcription and a second segment that is configured to bind a target nucleic acid sequence, wherein the target sequence is the mRNA transcript of PD-1 or PD-L1.
A method of retransmission processing in a communication receiver, the method comprising: obtaining second soft bits by demodulating a second data block received as a retransmission of an earlier received first data block that was unsuccessfully decoded by the receiver; the method characterized by: at least where the first data block satisfies a block quality target, forming combined demodulation results for decoding by combining the second soft bits with regenerated soft bits obtained by transforming first hard bits into said regenerated soft bits, wherein the first hard bits comprise decoding results obtained by decoding first soft bits obtained by demodulating the first data block; and decoding the combined demodulation results in an attempt to correctly recover information bits encoded in the first and second data blocks (50, 60). obtaining second soft bits by demodulating a second data block received as a retransmission of an earlier received first data block that was unsuccessfully decoded by the receiver; at least where the first data block satisfies a block quality target, forming combined demodulation results for decoding by combining the second soft bits with regenerated soft bits obtained by transforming first hard bits into said regenerated soft bits, wherein the first hard bits comprise decoding results obtained by decoding first soft bits obtained by demodulating the first data block; and decoding the combined demodulation results in an attempt to correctly recover information bits encoded in the first and second data blocks (50, 60).
A data transmission resource determining method, performed by a first terminal, wherein the method comprises: determining an initial time interval and an interval difference, wherein the initial time interval is a time interval between a time domain position at which a first transport block TB is transmitted for the first time and a time domain position at which the first TB is transmitted for the second time, the interval difference is a difference between a first time interval and a second time interval, the first time interval is a time interval between a time domain position at which the first TB is transmitted for the k th time and a time domain position at which the first TB is transmitted for the (k + 1) th time, the second time interval is a time interval between the time domain position at which the first TB is transmitted for the ( k + 1) th time and a time domain position at which the first TB is transmitted for the ( k + 2) th time, k is a positive integer, 1 ≤ k ≤ R max -1, R max represents a maximum quantity of retransmission times, R max is a positive integer greater than 1, and the interval difference is not 0; and determining, based on the initial time interval and the interval difference, a time domain position of a first time-frequency resource used when the first TB is transmitted for the i th time, wherein i is a positive integer, and 2 ≤ i ≤ R max +1. determining an initial time interval and an interval difference, wherein the initial time interval is a time interval between a time domain position at which a first transport block TB is transmitted for the first time and a time domain position at which the first TB is transmitted for the second time, the interval difference is a difference between a first time interval and a second time interval, the first time interval is a time interval between a time domain position at which the first TB is transmitted for the k th time and a time domain position at which the first TB is transmitted for the (k + 1) th time, the second time interval is a time interval between the time domain position at which the first TB is transmitted for the ( k + 1) th time and a time domain position at which the first TB is transmitted for the ( k + 2) th time, k is a positive integer, 1 ≤ k ≤ R max -1, R max represents a maximum quantity of retransmission times, R max is a positive integer greater than 1, and the interval difference is not 0; and determining, based on the initial time interval and the interval difference, a time domain position of a first time-frequency resource used when the first TB is transmitted for the i th time, wherein i is a positive integer, and 2 ≤ i ≤ R max +1.
A window or door, in particular for a building, wherein the window or the door is designed as a tilt and turn window or door which can be opened about a lower axis and about an axis of rotation on a right or left side, a) comprising at least one wing which is pivotably arranged on two of its sides, i.e. about the lower axis of rotation and about the axis of rotation on one of its sides on the right or left on a fixed frame, b) comprising a drive apparatus for automatically moving the wing relative to the fixed frame about the lower axis of rotation, c) wherein the drive apparatus acts directly on a fitting on the fixed frame, and d) wherein the drive apparatus comprises a drive element, e) and wherein a scissors-type deployment mechanism formed as a scissors-type deployment apparatus is provided, which has a main scissors-type link and an additional scissors-type link, characterized in that the drive element is designed as a shear-resistant drive chain, and f) the fitting, on which the drive apparatus acts, is designed as a hinge and g) said hinge is arranged on the fixed frame and lies in the axis of rotation on the right or left, which coincides with the axis of rotation of a further hinge for articulating the main scissors-type link. a) comprising at least one wing which is pivotably arranged on two of its sides, i.e. about the lower axis of rotation and about the axis of rotation on one of its sides on the right or left on a fixed frame, b) comprising a drive apparatus for automatically moving the wing relative to the fixed frame about the lower axis of rotation, c) wherein the drive apparatus acts directly on a fitting on the fixed frame, and d) wherein the drive apparatus comprises a drive element, e) and wherein a scissors-type deployment mechanism formed as a scissors-type deployment apparatus is provided, which has a main scissors-type link and an additional scissors-type link, characterized in that the drive element is designed as a shear-resistant drive chain, and f) the fitting, on which the drive apparatus acts, is designed as a hinge and g) said hinge is arranged on the fixed frame and lies in the axis of rotation on the right or left, which coincides with the axis of rotation of a further hinge for articulating the main scissors-type link.
An optical encoder characterized by comprising: a light source that emits light; a scale including two or more scale gratings (141,142) each having a predetermined pitch; a light source grating disposed between the light source and the scale and having the same predetermined pitch; and interference fringe detection means that detects an interference fringe generated by the light source grating and the scale, the interference fringe detection means comprising light receiving portions periodically arranged in the measurement direction with the same period as the scale; wherein the two or more scale gratings (141,142) are disposed side by side, and any adjacent pair of the scale gratings (141,142) are displaced from each other by a 1/2 period. a light source that emits light; a scale including two or more scale gratings (141,142) each having a predetermined pitch; a light source grating disposed between the light source and the scale and having the same predetermined pitch; and interference fringe detection means that detects an interference fringe generated by the light source grating and the scale, the interference fringe detection means comprising light receiving portions periodically arranged in the measurement direction with the same period as the scale;
An electrodynamic machine, comprising a magnetic field generator and an armature in a linear moving relationship with each other along a first axis; and a swash plate rotating about a second axis parallel to and offset from the first axis, the swash plate comprising a surface in slidable engagement with an end of the linear moving piece, wherein the linear moving piece is the magnetic field generator or an end of the armature, said surface being at a controllably variable angle to the second axis, thereby providing linear displacement between the magnetic field generator and the armature in response to rotation of the swash plate.
A computer implemented method of identifying image regions showing moving objects from a temporal sequence of images captured from successive viewpoints, the method comprising - computing image flow vectors from the temporal sequence of images; - computing an average direction of the image flow vectors associated with displacement of image areas between a first image and second image derived from the temporal sequence of images; - identifying regions in the first image; - determining, for each of the identified regions along a range of positions along the computed average direction from a position of the identified region, whether or not there is a match between first image content in the identified region in the first image and second image content in a patch located within said range of positions in the second image; - reducing the set of identified regions by removing identified regions for which it was determined in said determining step that there was a match within said range of positions. - computing image flow vectors from the temporal sequence of images; - computing an average direction of the image flow vectors associated with displacement of image areas between a first image and second image derived from the temporal sequence of images; - identifying regions in the first image; - determining, for each of the identified regions along a range of positions along the computed average direction from a position of the identified region, whether or not there is a match between first image content in the identified region in the first image and second image content in a patch located within said range of positions in the second image; - reducing the set of identified regions by removing identified regions for which it was determined in said determining step that there was a match within said range of positions.
A method of operating a wireless terminal in communication with a network node, the method comprising: receiving a Physical Downlink Control Channel, PDCCH, order from the network node, wherein the PDCCH order includes an identification for a Random Access CHannel, RACH, occasion to be used for a RACH message 1 preamble transmission, wherein the identification includes a first index that indicates a set of RACH occasions and a second index that indicates the RACH occasion associated with the set; and responsive to the PDCCH order, transmitting a Message 1 preamble to the network node using the RACH occasion. receiving a Physical Downlink Control Channel, PDCCH, order from the network node, wherein the PDCCH order includes an identification for a Random Access CHannel, RACH, occasion to be used for a RACH message 1 preamble transmission, wherein the identification includes a first index that indicates a set of RACH occasions and a second index that indicates the RACH occasion associated with the set; and responsive to the PDCCH order, transmitting a Message 1 preamble to the network node using the RACH occasion.