mhurhangee/ep-ind-claims huggingface dataset:
A particle filter for filtering exhaust gases of an internal combustion engine, in particular of a motor vehicle, with a housing, a filter element, wherein the housing comprises an installation opening, wherein - the particle filter comprises an outer jacket and an inner jacket which is arranged axially displaceably in the outer jacket, - the housing comprises the installation opening closed off by a cover, through which the inner jacket can be axially inserted into the outer jacket and can be pulled out of the outer jacket, - the filter element is supported in the inner jacket, - the inner jacket is radially supported on the outer jacket, - the inner jacket contacts a ring on the outflow side of the filter element, characterized in - that at least one supporting element axially supports the ring on the cover to transit pressure forces, - that the at least one supporting element is formed separately form the inner jacket. - the particle filter comprises an outer jacket and an inner jacket which is arranged axially displaceably in the outer jacket, - the housing comprises the installation opening closed off by a cover, through which the inner jacket can be axially inserted into the outer jacket and can be pulled out of the outer jacket, - the filter element is supported in the inner jacket, - the inner jacket is radially supported on the outer jacket, - the inner jacket contacts a ring on the outflow side of the filter element, - that at least one supporting element axially supports the ring on the cover to transit pressure forces, - that the at least one supporting element is formed separately form the inner jacket.
A motor driving apparatus comprising: a driver to drive a brushless direct current (BLDC) motor, the driver comprising a plurality of switches (Q1a, Q1b, Q2a, Q2b, Q3a, Q3b); a position sensor to sense the position of a rotor of the BLDC motor; and a controller to control a driving mode of the driver according to an external signal, and to control the driver to drive the motor according to the selected driving mode, wherein, in a general operation mode, the controller controls the driver to drive the motor in a 120 degree conduction method, wherein the position sensor is configured to detect back electromotive force generated from coils (L1, L2, L3) of the BLDC motor, and wherein one of the plurality of switches (Q1a, Q1b, Q2a, Q2b, Q3a, Q3b) is continuously turned on, and another switch of the plurality of switches (Q1a, Q1b, Q2a, Q2b, Q3a, Q3b) is turned on while modulating pulse width, based on the position of a rotor of the BLDC motor characterized in that in a power-saving operation mode, the controller is configured to control the driver to drive the motor in a 90 degree conduction method. a driver to drive a brushless direct current (BLDC) motor, the driver comprising a plurality of switches (Q1a, Q1b, Q2a, Q2b, Q3a, Q3b); a position sensor to sense the position of a rotor of the BLDC motor; and a controller to control a driving mode of the driver according to an external signal, and to control the driver to drive the motor according to the selected driving mode, wherein, in a general operation mode, the controller controls the driver to drive the motor in a 120 degree conduction method, wherein the position sensor is configured to detect back electromotive force generated from coils (L1, L2, L3) of the BLDC motor, and wherein one of the plurality of switches (Q1a, Q1b, Q2a, Q2b, Q3a, Q3b) is continuously turned on, and another switch of the plurality of switches (Q1a, Q1b, Q2a, Q2b, Q3a, Q3b) is turned on while modulating pulse width, based on the position of a rotor of the BLDC motor characterized in that in a power-saving operation mode, the controller is configured to control the driver to drive the motor in a 90 degree conduction method.
Soundproof tyre for vehicle wheels comprising at least: - a sound absorbent material applied at least on one portion of the radially inner surface of the tyre, preferably of the impermeable elastomeric material layer, wherein said sound absorbent material comprises a foamed polyolefin material with closed macrocells characterised by an average size of at least 1.5 mm according to ASTM D3576. - a sound absorbent material applied at least on one portion of the radially inner surface of the tyre, preferably of the impermeable elastomeric material layer, wherein said sound absorbent material comprises a foamed polyolefin material with closed macrocells characterised by an average size of at least 1.5 mm according to ASTM D3576.
An oil agent additive comprising at least one kind of a compound represented by a Chemical Formula: wherein R 1 and R 2 are each an unsubstituted aliphatic hydrocarbon group having 1 or more and 33 or less carbon atoms, a total number of carbon atoms of R 1 and R 2 is 2 or more and 34 or less, X is a single bond, and A is -O-CH 2 -CH -CH 2 OH or -O-CH(-CH 2 -OH) 2.
A heat recovery system comprising: a CO 2 recovery apparatus which includes an absorbing tower that absorbs CO 2 in exhaust gas into absorbing liquid and a regeneration tower that discharges CO 2 from the absorbing liquid that absorbed CO 2 in the absorbing tower to reuse the absorbing liquid that discharged CO 2 in the regeneration tower in the absorbing tower; a steam turbine; a condenser which condenses steam discharged from the steam turbine, a compressor that compresses the CO 2 from the regeneration tower; a first heat exchange portion in which heat exchange is performed between condensed water generated in the condenser and CO 2 compressed by the compressor; a second heat exchange portion in which heat exchange is performed between the condensed water heated in the first heat exchange portion and exhaust gas discharged from a boiler; the boiler to which the condensed water heated in the second heat exchange portion is supplied as boiler supply water; and characterized by comprising: a third heat exchange portion which heats the condensed water heated in the second heat exchange portion and returns the heated condensed water to the second heat exchange portion; and a control portion (15, 16) which switches between the boiler or the third heat exchange portion as a supply destination of the condensed water heated in the second heat exchange portion. a CO 2 recovery apparatus which includes an absorbing tower that absorbs CO 2 in exhaust gas into absorbing liquid and a regeneration tower that discharges CO 2 from the absorbing liquid that absorbed CO 2 in the absorbing tower to reuse the absorbing liquid that discharged CO 2 in the regeneration tower in the absorbing tower; a steam turbine; a condenser which condenses steam discharged from the steam turbine, a compressor that compresses the CO 2 from the regeneration tower; a first heat exchange portion in which heat exchange is performed between condensed water generated in the condenser and CO 2 compressed by the compressor; a second heat exchange portion in which heat exchange is performed between the condensed water heated in the first heat exchange portion and exhaust gas discharged from a boiler; the boiler to which the condensed water heated in the second heat exchange portion is supplied as boiler supply water; a third heat exchange portion which heats the condensed water heated in the second heat exchange portion and returns the heated condensed water to the second heat exchange portion; and a control portion (15, 16) which switches between the boiler or the third heat exchange portion as a supply destination of the condensed water heated in the second heat exchange portion.
A process for manufacturing a vaccine comprising steps of: (i) isolating an influenza virus from a patient sample, comprising a step in which the patient sample is incubated with a MDCK cell, wherein the MDCK cell is growing in a serum-free suspension culture, and (ii) manufacturing a vaccine from the influenza virus isolated in step (i), wherein the influenza virus is not grown in eggs before being exposed to MDCK cells, and wherein after isolation, the virus is not subsequently grown in eggs. (i) isolating an influenza virus from a patient sample, comprising a step in which the patient sample is incubated with a MDCK cell, wherein the MDCK cell is growing in a serum-free suspension culture, and (ii) manufacturing a vaccine from the influenza virus isolated in step (i),
An apparatus for controlling the lateral displacement of at least one sheet of material wherein the apparatus comprises: - at least one roller being rotatably mounted about an axis, wherein the roller comprises laths which extend in a direction of the axis and which are arranged in a circumferential direction of the roller, wherein each lath is mounted shiftably in the direction of the axis, - at least one lath shifting device for shifting the laths in the direction of the axis, and - at least one actuator being coupled to the lath shifting device by at least one connector such that an actuation of the actuator results in an actuation of the lath shifting device to laterally displace the at least one sheet of material resting on the laths in operation in the direction of the axis, wherein the connector is adapted so that an actuation of the actuator and the actuation of the lath shifting device have a relationship, characterized in that the relationship is variable. - at least one roller being rotatably mounted about an axis, wherein the roller comprises laths which extend in a direction of the axis and which are arranged in a circumferential direction of the roller, wherein each lath is mounted shiftably in the direction of the axis, - at least one lath shifting device for shifting the laths in the direction of the axis, and - at least one actuator being coupled to the lath shifting device by at least one connector such that an actuation of the actuator results in an actuation of the lath shifting device to laterally displace the at least one sheet of material resting on the laths in operation in the direction of the axis,
A wireless communication method, comprising: receiving, by a terminal device, a handover command that instructs the terminal device to be handed over from a source cell to a target cell in a Dual Active Protocol Stack, DAPS, handover mode, characterized in that, the method further comprises: performing, by the terminal device when the DAPS handover fails and no radio link failure in the source cell is detected, at least one of: re-establishing a Radio Link Control, RLC, entity corresponding to the at least one Signaling Radio Bearer, SRB, of the source cell, and deleting all data in a buffer of the RLC entity corresponding to the at least one SRB; and triggering a PDCP Service Data Unit, SDU, deletion process, and deleting all PDCP PDUs and PDCP SDUs of the PDCP entity corresponding to the at least one SRB. receiving, by a terminal device, a handover command that instructs the terminal device to be handed over from a source cell to a target cell in a Dual Active Protocol Stack, DAPS, handover mode, characterized in that, the method further comprises: performing, by the terminal device when the DAPS handover fails and no radio link failure in the source cell is detected, at least one of: re-establishing a Radio Link Control, RLC, entity corresponding to the at least one Signaling Radio Bearer, SRB, of the source cell, and deleting all data in a buffer of the RLC entity corresponding to the at least one SRB; and triggering a PDCP Service Data Unit, SDU, deletion process, and deleting all PDCP PDUs and PDCP SDUs of the PDCP entity corresponding to the at least one SRB. re-establishing a Radio Link Control, RLC, entity corresponding to the at least one Signaling Radio Bearer, SRB, of the source cell, and deleting all data in a buffer of the RLC entity corresponding to the at least one SRB; and triggering a PDCP Service Data Unit, SDU, deletion process, and deleting all PDCP PDUs and PDCP SDUs of the PDCP entity corresponding to the at least one SRB.
A laying machine for laying at least one flexible casing or tube, cable or wire including: - a blade arrangement for making a trench in the ground, - a consolidation and laying means being arranged behind the blade arrangement, for clearing and safeguarding the trench from collapsing while laying at least one flexible casing or tube, cable or wire into the trench, characterised in that during a trench making, consolidation and laying operation the lowest portion of the consolidation and laying means is arranged above the lowest portion of the blade arrangement, preferably between 10-100 mm above, more preferably 10-60 mm, most preferably 20-50 mm. - a blade arrangement for making a trench in the ground, - a consolidation and laying means being arranged behind the blade arrangement, for clearing and safeguarding the trench from collapsing while laying at least one flexible casing or tube, cable or wire into the trench, characterised in that during a trench making, consolidation and laying operation the lowest portion of the consolidation and laying means is arranged above the lowest portion of the blade arrangement, preferably between 10-100 mm above, more preferably 10-60 mm, most preferably 20-50 mm.
A computing device-based method of contrast cloud detection in a set of angiography image frames, a contrast-cloud being an amorphic time-varying region formed during contrast agent injection from a contrast agent leading catheter tip, the method comprising: storing, in an electronic memory device, a set of angiography image frames obtained during a first time period that comprises one or more time periods during which contrast solution is in a blood vessel; detecting a plurality of candidate contrast cloud regions in one or more angiography image frames; combining the plurality of candidate contrast cloud regions to generate a fused contrast cloud region, the fused contrast cloud region having a cloud boundary; defining an exclusion zone as the cloud boundary; and reducing one or more errors in one or more subsequent software-based image data processing methods applied to a plurality of angiography image frames from the set of angiography image frames by excluding angiography image data located within the exclusion zone from being used by such one or more methods. storing, in an electronic memory device, a set of angiography image frames obtained during a first time period that comprises one or more time periods during which contrast solution is in a blood vessel; detecting a plurality of candidate contrast cloud regions in one or more angiography image frames; combining the plurality of candidate contrast cloud regions to generate a fused contrast cloud region, the fused contrast cloud region having a cloud boundary; defining an exclusion zone as the cloud boundary; and reducing one or more errors in one or more subsequent software-based image data processing methods applied to a plurality of angiography image frames from the set of angiography image frames by excluding angiography image data located within the exclusion zone from being used by such one or more methods.
Packer for use when repairing underground pipe systems, where said packer comprises a flexible and/or expandable main body portion surrounding a hollow interior, said body portion having an elongated shape defining first and second ends (3,4) in either end of the main body portion, and where heating means are arranged in the packer for heating the packer or at least the surface of the packer, and means are provided for pressurizing the interior of the packer thereby expanding the packer where the means for heating the packer is in the shape of one or more heatable wire(s) arranged inside the interior of the packer, characterized in that one or more flexible bulkheads (5,5',6,6',7,7') are provided inside the hollow interior, each bulkhead arranged substantially cross-wise relative to the elongated shape of the body portion, where each bulkhead (5,5',6,6',7,7') is provided with a number of apertures, allowing the heatable wire(s) to pass through the bulkhead (5,5',6,6',7,7').
An earth cable (100; 215) adapted for being laid underground, comprising at least one optical fiber, - a thermally conducting polymeric layer surrounding the at least one optical fiber; and - copper conductors arranged in a radially-external position with respect to the thermally conducting polymeric layer. wherein the thermally conducting polymeric layer has a thermal conductivity of at least 0.3 W/mK. - a thermally conducting polymeric layer surrounding the at least one optical fiber; and - copper conductors arranged in a radially-external position with respect to the thermally conducting polymeric layer.
A method for detecting an autoantibody in a sample, comprising: a) contacting a sample from a subject with an antibody capturing entity, wherein said ACE is an ACE comprising the amino acid sequence shown in SEQ ID NO: 4 or a peptide or protein having at least 90% sequence identity with respect to SEQ ID NO: 4 and that is recognized by an autoantibody against SEQ ID NO: 4; and b) detecting the formation of a complex between an autoantibody and said ACE, wherein the detection of said autoantibody-ACE complex is indicative of the presence of said autoantibody in said sample, wherein the sample is blood, plasma or serum. a) contacting a sample from a subject with an antibody capturing entity, wherein said ACE is an ACE comprising the amino acid sequence shown in SEQ ID NO: 4 or a peptide or protein having at least 90% sequence identity with respect to SEQ ID NO: 4 and that is recognized by an autoantibody against SEQ ID NO: 4; and b) detecting the formation of a complex between an autoantibody and said ACE,
A haptic optic management system, comprising: a housing; a plate, wherein the plate is disposed within the housing; and a clip that engages the plate in the housing, wherein the clip comprises a clip body and a plurality of legs (720, 722) that extend from the clip body; wherein an intraocular lens is disposed on a lens surface of the plate; wherein the housing comprises openings (714, 715) in a side of the housing, wherein the openings comprise a central slit and a pair of slits, wherein the central slit is disposed between the pair of slits, wherein the clip extends through the openings (714, 715) into a through bore in the housing; wherein the plurality of legs (720, 722) comprises outer support legs that extend through the pair of slits in the housing to hold the plate in position and inner legs that extend through central slit, the inner legs each including a curved portion at a distal end of each of the inner legs; wherein the clip body is coupled to the outer support legs and the inner legs such that compression of the clip body causes the outer support legs and the inner legs to compress closer to one another causing the curved portions of the inner legs fold the plate and the intraocular lens; wherein the clip further comprises a center post that extends from the clip body to hold the intraocular lens in a stationary position during folding. a housing; a plate, wherein the plate is disposed within the housing; and a clip that engages the plate in the housing, wherein the clip comprises a clip body and a plurality of legs (720, 722) that extend from the clip body; wherein an intraocular lens is disposed on a lens surface of the plate; wherein the housing comprises openings (714, 715) in a side of the housing, wherein the openings comprise a central slit and a pair of slits, wherein the central slit is disposed between the pair of slits, wherein the clip extends through the openings (714, 715) into a through bore in the housing; wherein the plurality of legs (720, 722) comprises outer support legs that extend through the pair of slits in the housing to hold the plate in position and inner legs that extend through central slit, the inner legs each including a curved portion at a distal end of each of the inner legs; wherein the clip body is coupled to the outer support legs and the inner legs such that compression of the clip body causes the outer support legs and the inner legs to compress closer to one another causing the curved portions of the inner legs fold the plate and the intraocular lens; wherein the clip further comprises a center post that extends from the clip body to hold the intraocular lens in a stationary position during folding.
A method for transmitting and receiving information with a base Station, BS, by a User Equipment, UE, in a wireless communication system, the method comprising: receiving downlink control information, DCI, for cross carrier scheduling from the BS through a licensed band among serving cells configured for the UE, wherein the DCI includes information on scheduling of a Physical Uplink Shared CHannel, PUSCH, through an unlicensed band among the serving cells and information on a starting position of the PUSCH through the unlicensed band among the serving cells, performing a carrier sensing on the unlicensed band for a time duration, transmitting second information on the starting position of the PUSCH to the BS in an uplink resource of the licensed band, and transmitting the PUSCH through the unlicensed band based on the DCI when the unlicensed band is sensed to be idle during the time duration. receiving downlink control information, DCI, for cross carrier scheduling from the BS through a licensed band among serving cells configured for the UE, wherein the DCI includes information on scheduling of a Physical Uplink Shared CHannel, PUSCH, through an unlicensed band among the serving cells and information on a starting position of the PUSCH through the unlicensed band among the serving cells, performing a carrier sensing on the unlicensed band for a time duration, transmitting second information on the starting position of the PUSCH to the BS in an uplink resource of the licensed band, and transmitting the PUSCH through the unlicensed band based on the DCI when the unlicensed band is sensed to be idle during the time duration.
A sorting machine for crates having movable folded side walls or having fixed side walls, said sorting machine consisting of a conveyor belt having a loading area for the crates that are to be sorted according to model, colour, or according to structural and/or dimensional features, having an identification station for the crate model, and having at least one intercepting and stacking unit (B1, B2, B3) for the crates identified on the basis of the model, characterized in that the intercepting and stacking unit consists of a stop member (4s, 41s, 42s), which is movable (4r, 41r, 42r) between an upper rest position and a lowered active intercepting position for the crate moving along on the conveyor belt and which, in a first phase, after assuming the intercepting position, gradually decelerates the movement of the crate being pushed against said stop member by the conveyor belt and then stops said crate in a position corresponding to the lateral arrangement of the stacking device (5, 5a, 5b, 5d, 5e), and of a gripping and transferring device for the crates, which is equipped with jaws, wherein the transfer movement (Xh), which is transverse to the conveyor belt, and the movement to release (Xv) the crate is effected in a horizontal position above the stacking device.