mhurhangee/ep-ind-claims huggingface dataset:
A method for implementing low density parity check LDPC error coding, comprising: at a transmitting device, based on the number of information bits to be delivered in a packet, determining an initial number of orthogonal frequency division multiplexing OFDM symbols; determining a space time block coding STBC value that indicates whether STBC is employed; and determining a number of extra symbols value based on said initial number of OFDM symbols, wherein a final number of OFDM symbols is based on said initial number of OFDM symbols and said number of extra symbols value; generating an LDPC extension value based on said STBC value and said number of extra symbols value; and transmitting a packet that includes the STBC value, the final number of OFDM symbols and the LDPC extension value, for purposes of determining LDPC parameters associated with said packet in a receiving device. at a transmitting device, based on the number of information bits to be delivered in a packet, determining an initial number of orthogonal frequency division multiplexing OFDM symbols; determining a space time block coding STBC value that indicates whether STBC is employed; and determining a number of extra symbols value based on said initial number of OFDM symbols, wherein a final number of OFDM symbols is based on said initial number of OFDM symbols and said number of extra symbols value; generating an LDPC extension value based on said STBC value and said number of extra symbols value; and transmitting a packet that includes the STBC value, the final number of OFDM symbols and the LDPC extension value, for purposes of determining LDPC parameters associated with said packet in a receiving device.
A pharmaceutical composition, comprising the following components: Phenolic acids 2-20 parts by weight Flavonoids 0.5-5 parts by weight Tanshinones 0.005-0.5 part by weight Saponins 5-20 parts by weight Volatile oils 10-18 parts by weight, wherein, the phenolic acids comprise substances of the following weight parts: Danshensu (salvianic acid A): protocatechuic aldehyde: salvianolic acid T: salvianolic acid U: salvianolic acid D: salvianolic acid G: rosmarinic acid: lithospermic acid: salvianolic acid B: salvianolic acid A: isosalvianolic acid C = (3.0-11.0): (0.06-0.15): (0.2-0.55): (0.2-0.55): (0.4-1.3): (0.02-0.05): (0.3-0.8): (0.05-0.40): (0.10-0.40): (0.07-0.12): (0.015-0.04); the flavonoids comprise substances of the following weight parts: calycosin-7-glucoside: ononin: calycosin: formononetin = (0.6-1.8): (0.3-0.7): (0.03-0.18): (0.03-0.65); the tanshinones comprise substances of the following weight parts: dihydrotanshinone I: cryptotanshinone: tanshinone I: tanshinone IIA = (0.001-0.03): (0.005-0.04): (0.002-0.025): (0.004-0.03); the saponins comprise substances with the following weight parts: notoginsenoside R1: ginsenoside Rg1: ginsenoside Rb1: astragaloside: ginsenoside Rd = (1.8-3.5): (2.5-5.4): (1.3-5.0): (0.30-0.60): (0.4-0.6); and the volatile oils comprise substances with the following weight parts: trans -nerolidol: nerolidol oxide =:. wherein, the phenolic acids comprise substances of the following weight parts: Danshensu (salvianic acid A): protocatechuic aldehyde: salvianolic acid T: salvianolic acid U: salvianolic acid D: salvianolic acid G: rosmarinic acid: lithospermic acid: salvianolic acid B: salvianolic acid A: isosalvianolic acid C = (3.0-11.0): (0.06-0.15): (0.2-0.55): (0.2-0.55): (0.4-1.3): (0.02-0.05): (0.3-0.8): (0.05-0.40): (0.10-0.40): (0.07-0.12): (0.015-0.04); the flavonoids comprise substances of the following weight parts: calycosin-7-glucoside: ononin: calycosin: formononetin = (0.6-1.8): (0.3-0.7): (0.03-0.18): (0.03-0.65); the tanshinones comprise substances of the following weight parts: dihydrotanshinone I: cryptotanshinone: tanshinone I: tanshinone IIA = (0.001-0.03): (0.005-0.04): (0.002-0.025): (0.004-0.03); the saponins comprise substances with the following weight parts: notoginsenoside R1: ginsenoside Rg1: ginsenoside Rb1: astragaloside: ginsenoside Rd = (1.8-3.5): (2.5-5.4): (1.3-5.0): (0.30-0.60): (0.4-0.6); and the volatile oils comprise substances with the following weight parts: trans -nerolidol: nerolidol oxide =:.
A laser machining system for machining a workpiece by means of a laser beam, comprising - a computing numerical control, CNC, type system control device, - at least one laser machining head, - at least one sensor device associated with the at least one laser machining head, characterized in that the laser machining system further comprises: - an add-on module intercoupled or interposed between the control device and the laser machining head of the laser machining system, the add-on module comprising: - a first interface, wherein said add-on module is connected to said laser machining head and/or the at least one sensor device of said laser machining system via said first interface so as to exchange data; - a second interface, wherein said add-on module is connected to said control device via said second interface so as to exchange data; and - a processing unit configured to process data and to output the processed data via at least one of said first and second interfaces (401, 402, 403), wherein said add-on module is formed separately from said control device and from said laser machining head, wherein said add-on module is configured: to receive data from the at least one sensor device and/or the laser machining head to process the received data in order to adjust the machining parameters received from said control device based on the processed data and to transmit the adjusted machining parameters to said laser machining head and/or said control device. - a computing numerical control, CNC, type system control device, - at least one laser machining head, - at least one sensor device associated with the at least one laser machining head, characterized in that the laser machining system further comprises: - an add-on module intercoupled or interposed between the control device and the laser machining head of the laser machining system, - a first interface, wherein said add-on module is connected to said laser machining head and/or the at least one sensor device of said laser machining system via said first interface so as to exchange data; - a second interface, wherein said add-on module is connected to said control device via said second interface so as to exchange data; and - a processing unit configured to process data and to output the processed data via at least one of said first and second interfaces (401, 402, 403), wherein said add-on module is formed separately from said control device and from said laser machining head, to receive data from the at least one sensor device and/or the laser machining head to process the received data in order to adjust the machining parameters received from said control device based on the processed data and to transmit the adjusted machining parameters to said laser machining head and/or said control device.
An appliance defining a vertical direction, the appliance comprising: a cabinet defining a chamber (34, 36); a door (26, 30, 124) coupled to the cabinet and rotatable between an open position and a closed position to selectively seal the chamber (34, 36), the door (26, 28) having a perimeter edge defining a longitudinal plane; a mullion (38, 40, 110) having an inner face and an outer face, the mullion (38, 40) being rotatably coupled to the door (26, 30, 124) via a hinge defining an axial direction parallel to the longitudinal plane, the mullion (38, 40) being rotatable about the axial direction between a first position and a second position; and a damping assembly formed between the door and the mullion (38, 40), characterized in that the damping assembly comprises a stopper wedge fixed to the door, the stopper wedge having a primary face extending along a nonparallel angle (θ1) relative to the longitudinal plane, and a mated wedge fixed to the mullion (38, 40), the mated wedge having a receiving face complementary to the primary face of the stopper wedge to engage therewith in the first position, and an elastic damping material positioned between the stopper wedge and the mated wedge. a cabinet defining a chamber (34, 36); a door (26, 30, 124) coupled to the cabinet and rotatable between an open position and a closed position to selectively seal the chamber (34, 36), the door (26, 28) having a perimeter edge defining a longitudinal plane; a mullion (38, 40, 110) having an inner face and an outer face, the mullion (38, 40) being rotatably coupled to the door (26, 30, 124) via a hinge defining an axial direction parallel to the longitudinal plane, the mullion (38, 40) being rotatable about the axial direction between a first position and a second position; and a damping assembly formed between the door and the mullion (38, 40), characterized in that the damping assembly comprises a stopper wedge fixed to the door, the stopper wedge having a primary face extending along a nonparallel angle (θ1) relative to the longitudinal plane, and a mated wedge fixed to the mullion (38, 40), the mated wedge having a receiving face complementary to the primary face of the stopper wedge to engage therewith in the first position, and an elastic damping material positioned between the stopper wedge and the mated wedge.
An aircraft rear section comprising: a fuselage section incorporating a plurality of frames (7a, 7b), a torsion box installed at the fuselage section, wherein the torsion box has a front spar (3a, 3b) and a rear spar (8a, 8b), and wherein the torsion box is trimmable about a rotation axis coupled to the rear spar (8a, 8b), a cables harness (5a, 5b) having a portion fixed to the fuselage section and a portion extending through the torsion box interior, such as the harness 5a, 5b) is flexed with the movement of the torsion box, characterized in that, it further comprises a first clipping point (5a2, 5b2) wherein the harness (5a, 5b) is attached to a fuselage frame (1a, 7b) located in front of the torsion box front spar (3a, 3b), and a second clipping point (5a1, 5b1) wherein the harness (5a, 5b) is attached to the front spar (3a, 3b), wherein the second clipping point (5a1, 5b1) is located downstream the first clipping point (5a2, 5b2) from the fuselage towards the torsion box interior, and the harness (5a, 5b) passes through the front spar (3a, 3b) towards the interior of the torsion box downstream the second clipping point (5a1, 5b1). a fuselage section incorporating a plurality of frames (7a, 7b), a torsion box installed at the fuselage section, wherein the torsion box has a front spar (3a, 3b) and a rear spar (8a, 8b), and wherein the torsion box is trimmable about a rotation axis coupled to the rear spar (8a, 8b), a cables harness (5a, 5b) having a portion fixed to the fuselage section and a portion extending through the torsion box interior, such as the harness 5a, 5b) is flexed with the movement of the torsion box, characterized in that, it further comprises a first clipping point (5a2, 5b2) wherein the harness (5a, 5b) is attached to a fuselage frame (1a, 7b) located in front of the torsion box front spar (3a, 3b), and a second clipping point (5a1, 5b1) wherein the harness (5a, 5b) is attached to the front spar (3a, 3b), wherein the second clipping point (5a1, 5b1) is located downstream the first clipping point (5a2, 5b2) from the fuselage towards the torsion box interior, and the harness (5a, 5b) passes through the front spar (3a, 3b) towards the interior of the torsion box downstream the second clipping point (5a1, 5b1).
Adjustable camshaft having an inner shaft and an outer shaft arranged axially thereto, and having a camshaft adjuster, the rotor of which is connected non-rotationally with the inner shaft, wherein the stator of the camshaft adjuster is connected non-rotationally with the outer shaft, and wherein on the end face of the inner shaft an integral first connecting contour is provided and on the rotor an integral second connecting contour designed in a complementary manner to the first connecting contour is provided, which directly or indirectly facilitate a form-fitting connection between the inner shaft and the rotor.
A surgical robot/instrument system comprising a trocar which is designed to receive a surgical instrument and a holding arm whose distal end portion has a gripping or holding device arranged thereon, the latter being designed to hold exclusively the trocar in an exchangeable fashion, and the surgical instrument preferably with a minimally invasive design and comprising an instrument shaft whose distal end portion supports an instrument tip via a joint, said instrument tip supporting or forming an effector of the surgical instrument, wherein the surgical robot/instrument system comprises a number of drives or drive units by means of which at least the following functions can be effected: - an actuation of the effector, - an inclination or bending of the effector, - a rotation of the effector around its longitudinal axis and/or a rotation of the instrument shaft, - a movement of the instrument shaft in its shaft direction as well as - moving the instrument shaft transverse to the shaft direction, wherein the drives for effecting at least the instrument-internal functions, are provided as instrument-internal drives on/in the surgical instrument, whereas the drives for effecting the instrument-external functions - moving the instrument shaft transverse to the shaft direction are provided as instrument-external drives on/in the holding arm; wherein the holding arm extends in an essentially horizontal plane or is inclined relative thereto and characterized in that the gripping or holding device can be extended and retracted relative to the holding arm in a telescopic manner or the holding arm can be extended and retracted in the longitudinal direction of the holding arm in a telescopic manner, for moving the instrument shaft transverse to the shaft direction. - an actuation of the effector, - an inclination or bending of the effector, - a rotation of the effector around its longitudinal axis and/or a rotation of the instrument shaft, - a movement of the instrument shaft in its shaft direction as well as - moving the instrument shaft transverse to the shaft direction, wherein
An electrode assembly comprising: a plurality of first electrodes provided with one side edges connected to each other by a first fixing portion; a plurality of second electrodes provided with one side edges connected to each other by a second fixing portion and inserted between the other side edges of the first electrodes; a separator interposed between the first electrode and the second electrode; and lead tabs including a first current collecting tab connected to the first electrode and a second current collecting tab connected to the second electrode, characterized in that the separator is formed as a continuous zigzag type between the first electrode and the second electrode and inserted between the first electrode and the second electrode. a plurality of first electrodes provided with one side edges connected to each other by a first fixing portion; a plurality of second electrodes provided with one side edges connected to each other by a second fixing portion and inserted between the other side edges of the first electrodes; a separator interposed between the first electrode and the second electrode; and lead tabs including a first current collecting tab connected to the first electrode and a second current collecting tab connected to the second electrode, characterized in that the separator is formed as a continuous zigzag type between the first electrode and the second electrode and inserted between the first electrode and the second electrode.
A follistatin-like 1 (FSTL1) polypeptide for use in a method for repairing cardiac tissue following an injury in a subject in need thereof, the method comprising contacting the cardiac tissue with the FSTL1 polypeptide, wherein the FSTL1 polypeptide completely lacks any carbohydrate modification.
An implant delivery system for delivering a tendon implant, the implant delivery system comprising: a delivery shaft including a proximal portion and a distal portion; characterised by a detachable frame coupled to the distal portion of the delivery shaft, wherein the detachable frame includes a body portion and a plurality of attachment arms extending away from the body portion; and a connection assembly including a first connection member attached to the frame and a second connection member attached to the distal portion of the delivery shaft, wherein the first connection member and the second connection member form a releasable mating connection; wherein the plurality of attachment arms are attached to an implant; wherein the detachable frame is configured to detach from the delivery shaft in vivo while the detachable frame remains attached to the implant. a delivery shaft including a proximal portion and a distal portion; characterised by a detachable frame coupled to the distal portion of the delivery shaft, wherein the detachable frame includes a body portion and a plurality of attachment arms extending away from the body portion; and a connection assembly including a first connection member attached to the frame and a second connection member attached to the distal portion of the delivery shaft, wherein the first connection member and the second connection member form a releasable mating connection; wherein the plurality of attachment arms are attached to an implant; wherein the detachable frame is configured to detach from the delivery shaft in vivo while the detachable frame remains attached to the implant.
A method of preparing p-diiodobenzene comprising the step of reacting (i) benzene and monoiodobenzene or (ii) monoiodobenzene as a starting aromatic raw material with iodine in the presence of oxygen and Na-13X zeolite as zeolite catalyst at 200 to 400 °C to form p-diiodobenzene.
Underground laying unit for laying with other, in particular similar, underground laying units for covering an underground, wherein the underground laying unit comprises: an attachment structure at the side of the underground, which is configured for attaching to the underground; a plug connection structure facing away from the underground for detachably plug-connecting, in particular under formation of a snap-plug connection, with a correspondingly formed plug connection structure of a surface laying unit which comprises a using structure, in particular of a surface laying unit according to one of the claims 6 or 7, wherein the plug connection structure comprises a plurality of plug connection elements which are protruding in an elevated manner with respect to the attachment structure, characterized in that the plug connection elements comprise a snapping body for forming a snap-plug connection with corresponding leaf spring structures of the plug connection structure of the corresponding surface laying unit, wherein the plug connection structure is formed as a, in particular two-dimensionally, periodically repeating grid, in particular with a grid dimension in a range between 10 mm and 100 mm, of plug connection unit cells, and the grid is formed by a, in particular two-dimensionally, alternating sequence of plug connection unit cells which extend in an alternating manner in a first orientation direction and in a second orientation direction orthogonal thereto, wherein a respective plug connection unit cell is formed by an arrangement of at least one snapping body and at least one further plug connection element. an attachment structure at the side of the underground, which is configured for attaching to the underground; a plug connection structure facing away from the underground for detachably plug-connecting, in particular under formation of a snap-plug connection, with a correspondingly formed plug connection structure of a surface laying unit which comprises a using structure, in particular of a surface laying unit according to one of the claims 6 or 7, wherein the plug connection structure comprises a plurality of plug connection elements which are protruding in an elevated manner with respect to the attachment structure, characterized in that the plug connection elements comprise a snapping body for forming a snap-plug connection with corresponding leaf spring structures of the plug connection structure of the corresponding surface laying unit, wherein the plug connection structure is formed as a, in particular two-dimensionally, periodically repeating grid, in particular with a grid dimension in a range between 10 mm and 100 mm, of plug connection unit cells, and the grid is formed by a, in particular two-dimensionally, alternating sequence of plug connection unit cells which extend in an alternating manner in a first orientation direction and in a second orientation direction orthogonal thereto, wherein a respective plug connection unit cell is formed by an arrangement of at least one snapping body and at least one further plug connection element.
A method for providing a frame structure for machine-type communication in a wireless communication system, the communication system comprising a base station and a plurality of machine-type communication devices, MTCDs (160, 162, 164), the method comprising: dividing, by the base station, a frame of time-frequency space into at least one first sub-frame and at least one second sub-frame, the at least one first sub-frame associated with a first MTCD of the plurality of MTCDs, the first MTCD within a first coverage level of the base station, the at least one first sub-frame having a first sub-frame length and a first signal pulse bandwidth; the at least one second sub-frame associated with a second MTCD of the plurality of MTCDs, the second MTCD within a second coverage level of the base station different from the first coverage level, the at least one second sub-frame having a second sub-frame length different from the first sub-frame length and a second signal pulse bandwidth different from the first signal pulse bandwidth; and transmitting, by the base station, information about the at least one first sub-frame and the at least one second sub-frame to the first MTCD; wherein the second sub-frame length is an integer number times the first sub-frame length. dividing, by the base station, a frame of time-frequency space into at least one first sub-frame and at least one second sub-frame, the at least one first sub-frame associated with a first MTCD of the plurality of MTCDs, the first MTCD within a first coverage level of the base station, the at least one first sub-frame having a first sub-frame length and a first signal pulse bandwidth; the at least one second sub-frame associated with a second MTCD of the plurality of MTCDs, the second MTCD within a second coverage level of the base station different from the first coverage level, the at least one second sub-frame having a second sub-frame length different from the first sub-frame length and a second signal pulse bandwidth different from the first signal pulse bandwidth; and transmitting, by the base station, information about the at least one first sub-frame and the at least one second sub-frame to the first MTCD; wherein the second sub-frame length is an integer number times the first sub-frame length.