mhurhangee/ep-ind-claims huggingface dataset:
An exhaust gas treatment system for an internal combustion engine, the exhaust gas treatment system comprising: an exhaust gas pathway configured to receive exhaust gas from the internal combustion engine; a first treatment element (120, 120A) positioned within the exhaust gas pathway, the first treatment element (120, 120A) including an inlet channel including a selective catalytic reduction washcoat, an outlet channel, and a porous filter wall separating the inlet channel and the outlet channel such that the exhaust gas is configured to flow from the inlet channel to the outlet channel through the porous filter wall, wherein the porous filter wall includes a precious metal catalyst layer, a first injector configured to introduce a first reductant into the exhaust gas pathway upstream of the first treatment element (120, 120A); a second injector configured to introduce a second reductant into the exhaust gas pathway downstream of the first treatment element (120, 120A); and a second treatment element positioned within the exhaust gas pathway downstream of the second injector, the second treatment element including a SCR element; characterized in that the inlet channel includes a NOx storage layer coated under or over the SCR washcoat. an exhaust gas pathway configured to receive exhaust gas from the internal combustion engine; a first treatment element (120, 120A) positioned within the exhaust gas pathway, the first treatment element (120, 120A) including an inlet channel including a selective catalytic reduction washcoat, an outlet channel, and a porous filter wall separating the inlet channel and the outlet channel such that the exhaust gas is configured to flow from the inlet channel to the outlet channel through the porous filter wall, wherein the porous filter wall includes a precious metal catalyst layer, a first injector configured to introduce a first reductant into the exhaust gas pathway upstream of the first treatment element (120, 120A); a second injector configured to introduce a second reductant into the exhaust gas pathway downstream of the first treatment element (120, 120A); and a second treatment element positioned within the exhaust gas pathway downstream of the second injector, the second treatment element including a SCR element; characterized in that the inlet channel includes a NOx storage layer coated under or over the SCR washcoat.
A method of increasing a driving force of a catalyst cycling system for cycling a cooled catalyst, comprising providing a catalyst cooler, comprising a catalyst outlet, a fluidizing medium distributor, heat exchanging tubes, a dense phase fluidized bed, and a catalyst inlet; wherein hot catalyst particles enter from the catalyst inlet, flow downwardly through the dense phase fluidized bed, and are contact cooled by the pipe wall of the heat exchanging tube, and the cooled catalyst flows out from the catalyst outlet at the bottom to reaction zones of a riser reactor and/or a fluidized bed reactor, wherein a fluidizing gas is introduced from the fluidizing medium distributor at the bottom, flows upwardly through the dense phase fluidized bed, along with a removed gas that is entrained by the hot catalyst particles from a regenerator, and returns to the regenerator, wherein a low-speed dense phase fluidized bed for increasing the driving force of the catalyst cycling system is used to overcome an increase in the system resistant force caused by the increasing catalyst-circulation and to reduce a consumption of the fluidizing gas, wherein the low-speed expressed in a superficial gas velocity of the fluidizing medium is in a range of 0.005 to 0.7m/s. wherein hot catalyst particles enter from the catalyst inlet, flow downwardly through the dense phase fluidized bed, and are contact cooled by the pipe wall of the heat exchanging tube, and the cooled catalyst flows out from the catalyst outlet at the bottom to reaction zones of a riser reactor and/or a fluidized bed reactor, wherein a fluidizing gas is introduced from the fluidizing medium distributor at the bottom, flows upwardly through the dense phase fluidized bed, along with a removed gas that is entrained by the hot catalyst particles from a regenerator, and returns to the regenerator, wherein a low-speed dense phase fluidized bed for increasing the driving force of the catalyst cycling system is used to overcome an increase in the system resistant force caused by the increasing catalyst-circulation and to reduce a consumption of the fluidizing gas, wherein the low-speed expressed in a superficial gas velocity of the fluidizing medium is in a range of 0.005 to 0.7m/s.
A method for compensating for a residual voltage on an accelerometer, comprising: applying, to a plurality of auxiliary electrodes (62, 63) located opposite one or more planar surfaces of one or more proof masses, an auxiliary signal having a first harmonic frequency; determining, based on a signal from one or more sense electrodes (52, 53) located opposite the one or more planar surfaces, a sensed signal; identifying, from the sensed signal, a portion of the sensed signal having the first harmonic frequency; determining, based on comparing an amplitude of the portion of the sensed signal to a first threshold, that the residual voltage is present on the one or more proof masses or on the one or more sense electrodes; and modifying the operation of the accelerometer based on the determination that the residual voltage is present on the one or more proof masses or on the electrodes to compensate for the residual voltage. applying, to a plurality of auxiliary electrodes (62, 63) located opposite one or more planar surfaces of one or more proof masses, an auxiliary signal having a first harmonic frequency; determining, based on a signal from one or more sense electrodes (52, 53) located opposite the one or more planar surfaces, a sensed signal; identifying, from the sensed signal, a portion of the sensed signal having the first harmonic frequency; determining, based on comparing an amplitude of the portion of the sensed signal to a first threshold, that the residual voltage is present on the one or more proof masses or on the one or more sense electrodes; and modifying the operation of the accelerometer based on the determination that the residual voltage is present on the one or more proof masses or on the electrodes to compensate for the residual voltage.
Liquid curing agent for curing epoxy resins, comprising a) cyanamide; b) at least one urea derivative of the formula and/or formula in which the following applies to the radicals simultaneously or independently of one another: R 1, R 2 are, simultaneously or independently of one another, hydrogen, C 1 -C 15 -walkyl, C 3 -C 15 -cycloalkyl or together C 3 -C 10 -alkylene, by forming a ring; R 4, R 4 ', R 5, R 5', R 6, R 6', R 7, R 7', R 8, R 8' are, simultaneously or independently of one another, hydrogen, C 1 -C 15 -alkyl, C 3 -C 15 -cycloalkyl,-NHC NR 1 R 2 or C 1 -C 15 -alkyl substituted with-NHC NR 1 R 2; and c) at least one viscosity modifier selected from the group of mono-, di- and/or polyols, ethers, polyether, polyether polyols, ketones, aldehydes, nitriles, carboxylic acid esters or mixtures thereof. a) cyanamide; b) at least one urea derivative of the formula and/or formula in which the following applies to the radicals simultaneously or independently of one another: R 1, R 2 are, simultaneously or independently of one another, hydrogen, C 1 -C 15 -walkyl, C 3 -C 15 -cycloalkyl or together C 3 -C 10 -alkylene, by forming a ring; R 4, R 4 ', R 5, R 5', R 6, R 6', R 7, R 7', R 8, R 8' are, simultaneously or independently of one another, hydrogen, C 1 -C 15 -alkyl, C 3 -C 15 -cycloalkyl,-NHC NR 1 R 2 or C 1 -C 15 -alkyl substituted with-NHC NR 1 R 2; and R 1, R 2 are, simultaneously or independently of one another, hydrogen, C 1 -C 15 -walkyl, C 3 -C 15 -cycloalkyl or together C 3 -C 10 -alkylene, by forming a ring; R 4, R 4 ', R 5, R 5', R 6, R 6', R 7, R 7', R 8, R 8' are, simultaneously or independently of one another, hydrogen, C 1 -C 15 -alkyl, C 3 -C 15 -cycloalkyl,-NHC NR 1 R 2 or C 1 -C 15 -alkyl substituted with-NHC NR 1 R 2; c) at least one viscosity modifier selected from the group of mono-, di- and/or polyols, ethers, polyether, polyether polyols, ketones, aldehydes, nitriles, carboxylic acid esters or mixtures thereof.
A therapeutic monoclonal antibody and a compound of formula I as an ADCC enhancer molecule for use in a method of increasing antibody-dependent cellular cytotoxicity (ADCC) in a subject receiving therapeutic monoclonal antibody treatment, wherein the compound is in an amount sufficient to increase ADCC in the subject and the compound is represented by the structure: or a pharmaceutically acceptable salt thereof, wherein Y is R 1, R 3 and R 4 are H; R 2 is OR 6 or NR 6 R 7; R 5a, R 5b and R 5c are H, and R 6 and R 7 are independently selected from H, C 1 -C 6 alkyl, and C 1 -C 6 heteroalkyl. Y is R 1, R 3 and R 4 are H; R 2 is OR 6 or NR 6 R 7; R 5a, R 5b and R 5c are H, and R 6 and R 7 are independently selected from H, C 1 -C 6 alkyl, and C 1 -C 6 heteroalkyl.
A compound of formula I: or a pharmaceutically acceptable salt thereof, wherein: R 1 is selected from hydrogen and C 1 -C 4 alkyl; R 2 is selected from O and S; and R 3 is selected from -N(R 4)-(C 3 -C 6 cycloalkyl), -C 1 -C 6 alkyl, -(C 0 -C 4 alkylene)-heterocyclyl, and -(C 0 -C 4 alkylene)-heteroaryl, wherein any alkyl, alkylene, heterocyclyl, and heteroaryl portion of R 3 is optionally and independently substituted; and R 4 is selected from hydrogen and C 1 -C 4 alkyl. R 1 is selected from hydrogen and C 1 -C 4 alkyl; R 2 is selected from O and S; and R 3 is selected from -N(R 4)-(C 3 -C 6 cycloalkyl), -C 1 -C 6 alkyl, -(C 0 -C 4 alkylene)-heterocyclyl, and -(C 0 -C 4 alkylene)-heteroaryl, wherein any alkyl, alkylene, heterocyclyl, and heteroaryl portion of R 3 is optionally and independently substituted; and R 4 is selected from hydrogen and C 1 -C 4 alkyl.
Method for treating particulate material in a fluidising device, with a fluidising unit having a longitudinal axis (X-X), the fluidising unit having a perforated distributor plate dividing the fluidising unit into a distributor chamber and a fluidising chamber arranged above the distributor chamber, wherein the fluidising chamber comprises a material inlet for the material to be treated and the distributor chamber comprises a material discharge having a material outlet for the treated material (M') having a lower and an upper edge over a material outlet surface and a barrier device closes the material discharge and wherein the distributor chamber comprises a fluid inlet and the fluidising chamber comprises a fluid outlet for a process gas fluidising the material in the fluidising chamber flowing from the fluid inlet through the perforated distributor plate to the fluid outlet, wherein in an operating condition, the fluidising chamber is first filled through the material inlet with material to be treated and the material is then treated by the process gas flowing through the fluidising chamber, characterised in that the distributor chamber comprises a bar extending at least partly in a circumferential direction, arranged in the region of the material outlet surface and depending on the operating condition, the distributor plate movably arranged relative to the fluidising unit is moved to an emptying position such that the distributor plate is arranged in the emptying condition on the bar such that a fluid connection is formed past the distributor plate between the material outlet arranged in the distributor chamber and the fluidising chamber, and the treated material (M') is discharged from the fluidising unit through the material outlet, wherein in the emptying condition in the emptying position of the distributor plate, the barrier device releases the material discharge.
A method for transmitting an acknowledgement/negative-acknowledgement, ACK/NACK, signal by a user equipment, UE, in a radio access system supporting a multi-connectivity mode, the method comprising: receiving, from at least one of a first small cell and a second small cell, a higher layer signal including information on a resource region allocated for the UE operated in the multi-connectivity mode with the first and the second small cell; receiving, from the first small cell, a first physical downlink shared channel, PDSCH, via a subframe; receiving, from the second small cell, a second PDSCH via the same subframe; generating an ACK/NACK signal including first ACK/NACK bits for the first PDSCH and second ACK/NACK bits for the second PDSCH, based on physical uplink control channel, PUCCH, format 3, wherein the ACK/NACK signal is generated based on, encoding with a respective encoder the first and the second ACK/NACK bits and interleaving the entire encoded ACK/NACK bits including the encoded first ACK/NACK bits and the encoded second ACK/NACK bits, and transmitting, to both of the first and the second small cell, the ACK/NACK signal via the resource region including same time and frequency resources for the both of the first and the second small cell, wherein the UE is included in a group of a plurality of UEs operated in the multi-connectivity mode with the first and the second small cell, and wherein the resource region is scheduled to be allocated commonly for the plurality of UEs, based on a number of the plurality of UEs included in the group. receiving, from at least one of a first small cell and a second small cell, a higher layer signal including information on a resource region allocated for the UE operated in the multi-connectivity mode with the first and the second small cell; receiving, from the first small cell, a first physical downlink shared channel, PDSCH, via a subframe; receiving, from the second small cell, a second PDSCH via the same subframe; generating an ACK/NACK signal including first ACK/NACK bits for the first PDSCH and second ACK/NACK bits for the second PDSCH, based on physical uplink control channel, PUCCH, format 3, wherein the ACK/NACK signal is generated based on, encoding with a respective encoder the first and the second ACK/NACK bits and interleaving the entire encoded ACK/NACK bits including the encoded first ACK/NACK bits and the encoded second ACK/NACK bits, and transmitting, to both of the first and the second small cell, the ACK/NACK signal via the resource region including same time and frequency resources for the both of the first and the second small cell, wherein the UE is included in a group of a plurality of UEs operated in the multi-connectivity mode with the first and the second small cell, and wherein the resource region is scheduled to be allocated commonly for the plurality of UEs, based on a number of the plurality of UEs included in the group.
A method of communicating a signal from a second station to a first station using analog beam forming, said first station and second station having an antenna array including a plurality of antennas, said method comprising the steps of: (a) receiving on each antenna of the first station a respective reception analog signal having a configuration field and a data field, said configuration field comprising a training symbol repeated a plurality of times, (b) combining the reception analog signals into a combined signal, at least one antenna parameter of the plurality of antennas trying different antenna settings by adjusting during each training symbol repetition of the reception analog signals, (c) measuring the combined signal in response to the adjustment, and (d) computing a set of antenna weights based on the measurement, said antenna weights being configured to be applied for an analog beam forming on the antenna array for receiving the data field of the combined signal, and, wherein, the combined signal is digitized before being measured. (a) receiving on each antenna of the first station a respective reception analog signal having a configuration field and a data field, said configuration field comprising a training symbol repeated a plurality of times, (b) combining the reception analog signals into a combined signal, at least one antenna parameter of the plurality of antennas trying different antenna settings by adjusting during each training symbol repetition of the reception analog signals, (c) measuring the combined signal in response to the adjustment, and (d) computing a set of antenna weights based on the measurement, said antenna weights being configured to be applied for an analog beam forming on the antenna array for
An automatic brake device for an industrial vehicle comprising: a brake pedal that is pivotably supported by a bracket; a brake master cylinder in which brake pressure is generated by the brake pedal stepped on; an actuator that is operated during automatically braking, and configured to generate brake pressure in the brake master cylinder, and a first pivotable link member that is coupled to the brake master cylinder, further characterized in that the automatic brake device includes: a second pivotable link member that is coupled to the actuator, the brake pedal includes a pedal-side contact portion that is configured to pivot the first pivotable link member, the second pivotable link member includes a second link-side contact portion that is configured to pivot the first pivotable link member, the first pivotable link member includes: a first contacted portion that is contactable with the pedal-side contact portion; and a second contacted portion that is contactable with the second link-side contact portion, the first pivotable link member is pivoted by the pedal-side contact portion pressing the first contacted portion while the brake pedal is stepped on, simultaneously the second contacted portion being moved away from the second link-side contact portion, and the first pivotable link member is pivoted by the second link-side contact portion pressing the second contacted portion while the actuator is operated, simultaneously the first contacted portion being moved away from the pedal-side contact portion. a brake pedal that is pivotably supported by a bracket; a brake master cylinder in which brake pressure is generated by the brake pedal stepped on; an actuator that is operated during automatically braking, and configured to generate brake pressure in the brake master cylinder, and a first pivotable link member that is coupled to the brake master cylinder, further characterized in that the automatic brake device includes: a second pivotable link member that is coupled to the actuator, the brake pedal includes a pedal-side contact portion that is configured to pivot the first pivotable link member, the second pivotable link member includes a second link-side contact portion that is configured to pivot the first pivotable link member, the first pivotable link member includes: a first contacted portion that is contactable with the pedal-side contact portion; and a second contacted portion that is contactable with the second link-side contact portion, a first contacted portion that is contactable with the pedal-side contact portion; and a second contacted portion that is contactable with the second link-side contact portion, the first pivotable link member is pivoted by the pedal-side contact portion pressing the first contacted portion while the brake pedal is stepped on, simultaneously the second contacted portion being moved away from the second link-side contact portion, and the first pivotable link member is pivoted by the second link-side contact portion pressing the second contacted portion while the actuator is operated, simultaneously the first contacted portion being moved away from the pedal-side contact portion.
Use of a replaceable, longitudinally compressible membrane in a chip testing system for separately receiving a succession of chips for testing for forming a plurality of temporary mechanical and electrical connections between a device under test having a plurality of terminals and a load board having a plurality of contact pads, each contact pad being laterally arranged to correspond to exactly one terminal, comprising: a flexible, electrically insulating top contact plate longitudinally adjacent to the terminals on the device under test; a flexible, electrically insulating bottom contact plate longitudinally adjacent to the contact pads on the load board; a longitudinally resilient, electrically insulating interposer between the top and bottom contact plates (40, 60); wherein said interposer including a resilient honeycomb of interconnected elastomeric supporting member cells each cell including longitudinal pin-supporting holes (230/240)) there through;_ a plurality of longitudinally compressible, electrically conductive pin pairs (20, 30) extending through longitudinal holes in the top contact plate, the interposer and the bottom contact plate, each pin pair in the plurality being laterally arranged to correspond to exactly one terminal on the device under test; wherein when a particular pin pair (20, 30) is longitudinally compressed, the pins (20, 30) in the pair slide past each other along a virtual interface surface that is inclined with respect to a surface normal of the interposer;and wherein said pins each including a pair of planar opposed sidewalls, which engage with said elastomeric material in said cells(210/240). a flexible, electrically insulating top contact plate longitudinally adjacent to the terminals on the device under test; a flexible, electrically insulating bottom contact plate longitudinally adjacent to the contact pads on the load board; a longitudinally resilient, electrically insulating interposer between the top and bottom contact plates (40, 60); wherein said interposer including a resilient honeycomb of interconnected elastomeric supporting member cells each cell including longitudinal pin-supporting holes (230/240)) there through;_ a plurality of longitudinally compressible, electrically conductive pin pairs (20, 30) extending through longitudinal holes in the top contact plate, the interposer and the bottom contact plate, each pin pair in the plurality being laterally arranged to correspond to exactly one terminal on the device under test; wherein when a particular pin pair (20, 30) is longitudinally compressed, the pins (20, 30) in the pair slide past each other along a virtual interface surface that is inclined with respect to a surface normal of the interposer;and wherein said pins each including a pair of planar opposed sidewalls, which engage with said elastomeric material in said cells(210/240).
A drug with activity against the herpes virus family, characterized in that it comprises a (2,6-dichlorophenyl)amide salt of carbopentoxysulfanilic acid of general formula: where X is Na, K, NH 4.
Use of a pitavastatin compound, and amlodipine or a salt thereof for - producing a triglyceride-lowering agent or - for producing a preventive and/or therapeutic agent for hypertriglyceridemia. - producing a triglyceride-lowering agent or - for producing a preventive and/or therapeutic agent for hypertriglyceridemia.