mhurhangee/ep-ind-claims huggingface dataset:
An actuator assembly comprising: an assembly housing having a cylindrical housing having opposing first and second ends (108, 112) and a hollow interior preferably containing a hydraulic fluid; a movable piston assembly disposed within the interior, the piston assembly including a piston rod supporting a piston head, the piston head having a fixed orifice and a check valve disposed in another orifice; and a spring means (116,167) disposed in relation to the piston head, characterized that the spring means includes at least one spring at the distal end of the piston rod and distal of the piston head, being preloaded in compression to create energy storage at the end of an extension stroke of the piston rod outward of the assembly housing. an assembly housing having a cylindrical housing having opposing first and second ends (108, 112) and a hollow interior preferably containing a hydraulic fluid; a movable piston assembly disposed within the interior, the piston assembly including a piston rod supporting a piston head, the piston head having a fixed orifice and a check valve disposed in another orifice; and a spring means (116,167) disposed in relation to the piston head, characterized that the spring means includes at least one spring at the distal end of the piston rod and distal of the piston head, being preloaded in compression to create energy storage at the end of an extension stroke of the piston rod outward of the assembly housing.
A method for heating batches for an end-fired glass-melting furnace, in which the glass-melting furnace features at least one insertable lateral extension for the input of the batches and at least one charging device (12; 20), wherein the insertable extension is provided with an insulating roofing and features an end wall toward the charging device, and wherein said end wall encloses a gas chamber, which is open toward the glass-melting furnace, together with the roofing, characterized in that the gas chamber has a height of at least 600 mm above the plane (E-E) of the furnace edge such that the batch in the insertable extension is heated and fused from above due to the penetration of thermal radiation from the furnace chamber into the insertable extension, in that the insertable extension has an internal length of at least 2250 mm in the direction of the glass-melting furnace, in that the transport path of the batch in the insertable extension is so long that the batch is heated until it at least partially fuses due to the resulting long residence time of the batch in the insertable extension, in that the width of the transport path for the batch in the insertable extension amounts to at least 1.0 m at the inlet into the glass-melting furnace such that the batch in the insertable extension is additionally heated from below due to a flow and due to the penetration of the molten glass, in that the batch is in an at least partially fused state displaced on the surface of the molten glass in the glass-melting furnace, and in that the characteristic number forming the ratio between the throughput of the batch through the insertable extension (in tons/hour) and the inner surface of the insertable extension (in m 2) does not exceed the value 3.50 at a transport path through the insertable extension according to the dimensions and of the insertable extension.
Machine for the treatment of folded printed fabrics comprising: a) a box-shaped treatment chamber; b) a plurality of sticks, for being operated in said treatment chamber for supporting a printed fabric and forming folds of said printed fabric c) a handling structure, for being active on said sticks to advance said sticks along a substantially closed path, according to a predetermined advancement direction, wherein said path comprises: an operating stretch, wherein said sticks are adapted to support the printed fabric, said operating stretch having a beginning (T1A) and an end (T1B); a recirculation stretch, wherein the handling structure is adapted for transporting the sticks from the end (T1B) of said operating stretch to the beginning (T1A) of said operating stretch, characterized in that said machine comprises: d) an uncoupling station, for being active in said recirculation stretch and configured to adjust a distance between a respective stick and the next stick along the substantially closed path; wherein said box-shaped treatment chamber comprises a pair of side walls (11, 12), said sticks being substantially perpendicular to said side walls (11, 12); wherein each of said side walls (11, 12) is provided with a guide, said guide being substantially continuous along said closed path and guiding said sticks along said closed path. a) a box-shaped treatment chamber; b) a plurality of sticks, for being operated in said treatment chamber for supporting a printed fabric and forming folds of said printed fabric c) a handling structure, for being active on said sticks to advance said sticks along a substantially closed path, according to a predetermined advancement direction, wherein said path comprises: an operating stretch, wherein said sticks are adapted to support the printed fabric, said operating stretch having a beginning (T1A) and an end (T1B); a recirculation stretch, wherein the handling structure is adapted for transporting the sticks from the end (T1B) of said operating stretch to the beginning (T1A) of said operating stretch, characterized in that said machine comprises: an operating stretch, wherein said sticks are adapted to support the printed fabric, said operating stretch having a beginning (T1A) and an end (T1B); a recirculation stretch, wherein the handling structure is adapted for transporting the sticks from the end (T1B) of said operating stretch to the beginning (T1A) of said operating stretch, characterized in that said machine comprises: d) an uncoupling station, for being active in said recirculation stretch and configured to adjust a distance between a respective stick and the next stick along the substantially closed path; wherein said box-shaped treatment chamber comprises a pair of side walls (11, 12), said sticks being substantially perpendicular to said side walls (11, 12);
A flow cell comprising: a flow channel through which a sample fluid and a sheath fluid flow; a sample flow channel that introduces the sample fluid into the flow channel; and at least one sheath flow channel (20,22) that introduces the sheath fluid into the flow channel; the flow channel comprising: a flow merging section where the sample flow channel and the sheath flow channel merge, a flattened section that is disposed downstream of the flow merging section, that is formed in line with the first wall of two walls (26B,26C) facing across the flow merging section, and that is shallower in depth than the flow merging section, and a tapered section that connects the flow merging section with the flattened section and that gradually decreases in depth on progression downstream, wherein the sample flow channel has a first wall formed in-line with the first wall of the walls (26B,26C) that face across the flow merging section and is configured to introduce the sample fluid into the flow merging section along the first wall of the walls (26B,26C) facing across the flow merging section, and wherein the sheath flow channel is configured to introduce the sheath fluid into the flow merging section from a direction such that the sheath fluid flows so as to press the sample fluid against and in contact with the first wall. a flow channel through which a sample fluid and a sheath fluid flow; a sample flow channel that introduces the sample fluid into the flow channel; and at least one sheath flow channel (20,22) that introduces the sheath fluid into the flow channel; the flow channel comprising: a flow merging section where the sample flow channel and the sheath flow channel merge, a flattened section that is disposed downstream of the flow merging section, that is formed in line with the first wall of two walls (26B,26C) facing across the flow merging section, and that is shallower in depth than the flow merging section, and a tapered section that connects the flow merging section with the flattened section and that gradually decreases in depth on progression downstream, a flow merging section where the sample flow channel and the sheath flow channel merge, a flattened section that is disposed downstream of the flow merging section, that is formed in line with the first wall of two walls (26B,26C) facing across the flow merging section, and that is shallower in depth than the flow merging section, and a tapered section that connects the flow merging section with the flattened section and that gradually decreases in depth on progression downstream, wherein the sample flow channel has a first wall formed in-line with the first wall of the walls (26B,26C) that face across the flow merging section and is configured to introduce the sample fluid into the flow merging section along the first wall of the walls (26B,26C) facing across the flow merging section, and wherein the sheath flow channel is configured to introduce the sheath fluid into the flow merging section from a direction such that the sheath fluid flows so as to press the sample fluid against and in contact with the first wall.
A method for video encoding, comprising: determining, for a current block being encoded in a picture, an intra prediction mode for each of the plurality of sub-blocks being subdivided from the current block; determining, based on the determined intra prediction mode for the each of the plurality of sub-blocks, a corresponding dependency number; determining a scan order of the plurality of sub-blocks based on the determined corresponding dependency number for the each of the plurality of the sub-blocks; and encoding the current block using the determined scan order of the plurality of sub-blocks, characterized in that the corresponding dependency number is indicative of a number of other ones of the plurality of sub-blocks that the each of the plurality of sub-blocks uses for spatial prediction of the each of the plurality of sub-blocks. determining, for a current block being encoded in a picture, an intra prediction mode for each of the plurality of sub-blocks being subdivided from the current block; determining, based on the determined intra prediction mode for the each of the plurality of sub-blocks, a corresponding dependency number; determining a scan order of the plurality of sub-blocks based on the determined corresponding dependency number for the each of the plurality of the sub-blocks; and encoding the current block using the determined scan order of the plurality of sub-blocks, characterized in that the corresponding dependency number is indicative of a number of other ones of the plurality of sub-blocks that the each of the plurality of sub-blocks uses for spatial prediction of the each of the plurality of sub-blocks.
A method for reducing the susceptibility to proteolytic cleavage of a parent α-amylase having a TIM barrel structure and having at least 70% amino acid sequence identity to SEQ ID NO: 3, wherein the parent α-amylase has a residue other than glycine or glutamic acid at a position corresponding to position 333 of SEQ ID NO: 3 by alignment using ClustalW with default parameters, the method comprising substituting the residue at the position corresponding to position 333 to glycine or glutamic acid to produce a variant α-amylase, wherein the variant α-amylase has reduced susceptibility to cleavage compared to the parent α-amylase.
A mobility device comprising: a main frame, drive wheel swing arms pivotally connected to the main frame, drive wheels connected to a respective one of the drive wheel swing arms, wheel motors (7a, 7b), each wheel motor (7a, 7b) being configured to drive a respective drive wheel, a rear wheel swing arm pivotally connected to the main frame, a rear wheel connected to the rear wheel swing arm, and an actuating device configured to control a rear wheel swing arm angle (a) between the rear wheel swing arm and the main frame independently of control of the wheel motors (7a, 7b), the mobility device further comprising: a body support system pivotally connected to the main frame, wherein the body support system includes a lower body support system, wherein the body support system comprises an upper body support system pivotally connected to the lower body support system. a main frame, drive wheel swing arms pivotally connected to the main frame, drive wheels connected to a respective one of the drive wheel swing arms, wheel motors (7a, 7b), each wheel motor (7a, 7b) being configured to drive a respective drive wheel, a rear wheel swing arm pivotally connected to the main frame, a rear wheel connected to the rear wheel swing arm, and an actuating device configured to control a rear wheel swing arm angle (a) between the rear wheel swing arm and the main frame independently of control of the wheel motors (7a, 7b), the mobility device further comprising: a body support system pivotally connected to the main frame, wherein the body support system includes a lower body support system, wherein the body support system comprises an upper body support system pivotally connected to the lower body support system.
A method comprising: receiving, by a first wireless device from a second wireless device, assistance information indicating at least one time interval requested by the second wireless device for not receiving signals via a sidelink between the first wireless device and the second wireless device; and transmitting, by the first wireless device to a base station, a message comprising the assistance information. receiving, by a first wireless device from a second wireless device, assistance information indicating at least one time interval requested by the second wireless device for not receiving signals via a sidelink between the first wireless device and the second wireless device; and transmitting, by the first wireless device to a base station, a message comprising the assistance information.
A position monitoring device for establishing the position of a first part (2 or 1) with respect to a second part (1 or 2), having a transceiver at the first part (2 or 1) for emitting an interrogation signal and for receiving a response signal that can be emitted in reaction to the interrogation signal by a transponder, wherein a screen that attenuates signals between the transponder and the transceiver is provided and two members of the group consisting of the transceiver, the screen and the transponder being movable relative to one another, wherein the screen is positionable in a relative manner with regard to the second part (1 or 2) carrying the transponder between positions having a different screening strength, characterized in that via the screen a limiting distance between the first and second part (1, 2) is adjustable.
An OD matrix estimation device characterized by comprising: an extraction unit (109, 402) that, on the basis of intra-bank OD matrixes that show traffic flow information in respective elevator banks in a plurality of elevator banks (100, 101) and transfer floor information about a transfer floor where transfers among the elevator banks (100, 101) is possible, extracts transfer-related intra-bank OD matrixes having a common transfer floor from among the intra-bank OD matrixes; a matching unit (109, 403) that, from among the transfer-related intra-bank OD matrixes extracted by the extraction unit (109, 402), combines first transfer intra-bank OD matrixes each including OD data in which the transfer floor is defined as an arrival floor with second transfer intra-bank OD matrixes each including OD data in which the transfer floor is defined as a departure floor to create transfer-related OD data; and an estimation unit that, from the transfer-related OD data obtained through combination processing by the matching unit (109, 403), estimates OD data for users who transfer and move among the banks to create a plural-bank OD matrix that is an OD matrix of the entirety of the plurality of banks (100, 101). an extraction unit (109, 402) that, on the basis of intra-bank OD matrixes that show traffic flow information in respective elevator banks in a plurality of elevator banks (100, 101) and transfer floor information about a transfer floor where transfers among the elevator banks (100, 101) is possible, extracts transfer-related intra-bank OD matrixes having a common transfer floor from among the intra-bank OD matrixes; a matching unit (109, 403) that, from among the transfer-related intra-bank OD matrixes extracted by the extraction unit (109, 402), combines first transfer intra-bank OD matrixes each including OD data in which the transfer floor is defined as an arrival floor with second transfer intra-bank OD matrixes each including OD data in which the transfer floor is defined as a departure floor to create transfer-related OD data; and an estimation unit that, from the transfer-related OD data obtained through combination processing by the matching unit (109, 403), estimates OD data for users who transfer and move among the banks to create a plural-bank OD matrix that is an OD matrix of the entirety of the plurality of banks (100, 101).
A pharmaceutical composition comprising microvesicles derived from protoplasts of bacterial cells for use in delivering a therapeutic, diagnostic and/or vaccine substance, wherein said microvesicles are prepared by a method comprising: (a) removing cell walls from said bacterial cells to yield protoplasts; (b) constructing microvesicles in a suspension of the protoplasts using cytolysis by osmosis, electroporation, sonication, homogenisation, detergent treatment, freeze-thawing, extrusion, mechanical degradation or chemical treatment; and (c) isolating the microvesicles constructed from the suspension, and wherein said microvesicles are loaded with a therapeutic substance, a diagnostic substance and/or a vaccine substance. (a) removing cell walls from said bacterial cells to yield protoplasts; (b) constructing microvesicles in a suspension of the protoplasts using cytolysis by osmosis, electroporation, sonication, homogenisation, detergent treatment, freeze-thawing, extrusion, mechanical degradation or chemical treatment; and (c) isolating the microvesicles constructed from the suspension, and wherein said microvesicles are loaded with a therapeutic substance, a diagnostic substance and/or a vaccine substance.
A method performed by a wireless communication device, the method comprising: receiving (1302; 1402; 2202) a configuration of a plurality of Transmission Configuration Indicator, TCI, states via Radio Resource Control, RRC, signaling; receiving (1306; 1406; 2204) a Media Access Control, MAC, Control Element, CE, that activates a subset of the plurality of TCI states; receiving (1308; 1408; 2206) a downlink control information, DCI, that: indicates one or more of the subset of the plurality of TCI states to be used; and explicitly indicates one or more particular Control Resource Sets, CORESETs, for which the one or more of the subset of the plurality of TCI states are to be used; and using one or more spatial quasi colocation, QCL, downlink reference signals contained in the one or more of the subset of the plurality of TCI states to receive a Physical Downlink Control Channel, PDCCH, corresponding to the one or more particular CORESETs. receiving (1302; 1402; 2202) a configuration of a plurality of Transmission Configuration Indicator, TCI, states via Radio Resource Control, RRC, signaling; receiving (1306; 1406; 2204) a Media Access Control, MAC, Control Element, CE, that activates a subset of the plurality of TCI states; receiving (1308; 1408; 2206) a downlink control information, DCI, that: indicates one or more of the subset of the plurality of TCI states to be used; and explicitly indicates one or more particular Control Resource Sets, CORESETs, for which the one or more of the subset of the plurality of TCI states are to be used; and indicates one or more of the subset of the plurality of TCI states to be used; and explicitly indicates one or more particular Control Resource Sets, CORESETs, for which the one or more of the subset of the plurality of TCI states are to be used; and using one or more spatial quasi colocation, QCL, downlink reference signals contained in the one or more of the subset of the plurality of TCI states to receive a Physical Downlink Control Channel, PDCCH, corresponding to the one or more particular CORESETs.
A driving assistance device comprising: an imaging unit; a projection unit configured to project an image based on image information from the imaging unit toward a projection surface; and an adjustment unit that is configured to form image information that an image sensor of the imaging unit acquires to be adjusted image information that is adjusted for the projection surface, characterized in that the adjustment unit includes an optical correction structure that is configured to cause the image sensor to acquire the adjusted image information by optical correction. an imaging unit; a projection unit configured to project an image based on image information from the imaging unit toward a projection surface; and an adjustment unit that is configured to form image information that an image sensor of the imaging unit acquires to be adjusted image information that is adjusted for the projection surface,
Process for preparing fatty alcohol ethoxylates, characterized in that the fatty alcohol is reacted with ethylene glycol, an oligoethylene glycol or a polyethylene glycol in the presence of an acidic catalyst, wherein a homogeneous acidic catalyst is used.
A light-emitting device comprising an organometallic complex of the form Z-M-Z 1 as light emitting material, wherein: M is Pd or Pt; Z is a nitrogen containing heterocyclic carbene ligand; and Z 1 is a phosphorus ligand selected from the group consisting of: wherein each group R 1, R 2, R 3 is independently selected from the group consisting of substituted or unsubstituted primary, secondary or tertiary alkyl, that may be cyclic and may be unsaturated; and optionally two or more of the groups R 1, R 2, R 3, when not bonded to phosphorus via oxygen, are fused to form a ring; or Z 1 is a nitrogen containing heterocyclic carbene ligand that may be the same as or different from Z. M is Pd or Pt; Z is a nitrogen containing heterocyclic carbene ligand; and Z 1 is a phosphorus ligand selected from the group consisting of: wherein each group R 1, R 2, R 3 is independently selected from the group consisting of substituted or unsubstituted primary, secondary or tertiary alkyl, that may be cyclic and may be unsaturated; and optionally two or more of the groups R 1, R 2, R 3, when not bonded to phosphorus via oxygen, are fused to form a ring; or Z 1 is a nitrogen containing heterocyclic carbene ligand that may be the same as or different from Z.
A long term storage stable bendamustine-containing composition, comprising: a) bendamustine or a pharmaceutically acceptable salt thereof; and b) a pharmaceutically acceptable fluid comprising i) polyethylene glycol and propylene glycol; and ii) a stabilizing amount of an antioxidant; said bendamustine-containing composition having less than 5% total impurities, on a normalized peak area response ("PAR") basis as determined by high performance liquid chromatography ("HPLC") at a wavelength of 223nm, after at least 15 months of storage at a temperature of from 5 °C to 25 °C. a) bendamustine or a pharmaceutically acceptable salt thereof; and b) a pharmaceutically acceptable fluid comprising i) polyethylene glycol and propylene glycol; and ii) a stabilizing amount of an antioxidant; said bendamustine-containing composition having less than 5% total impurities, on a normalized peak area response ("PAR") basis as determined by high performance liquid chromatography ("HPLC") at a wavelength of 223nm, after at least 15 months of storage at a temperature of from 5 °C to 25 °C. i) polyethylene glycol and propylene glycol; and ii) a stabilizing amount of an antioxidant;