mhurhangee/patent-ind-claim-en huggingface dataset:
A chair comprising: a seat ; a backrest separated from the seat ; and an upper support frame to which the backrest is attached at a position higher than the seat , wherein the upper support frame includes: a left side portion and a right side portion both extending forward at left and right sides of the seated person; and a rear portion that continuously and integrally connects the left side portion and the right side portion , the left side portion and the right side portion are connected to side support bodies arranged on left and right sides of the seat to be tiltable, the backrest is connected to the upper support frame to be tiltable rearward, and characterized in that resistance when the backrest tilts rearward relative to the upper support frame is set to be larger than resistance when the upper support frame tilts relative to the side support body . a seat ; a backrest separated from the seat ; and an upper support frame to which the backrest is attached at a position higher than the seat , wherein the upper support frame includes: a left side portion and a right side portion both extending forward at left and right sides of the seated person; and a rear portion that continuously and integrally connects the left side portion and the right side portion , the left side portion and the right side portion are connected to side support bodies arranged on left and right sides of the seat to be tiltable, the backrest is connected to the upper support frame to be tiltable rearward, and characterized in that resistance when the backrest tilts rearward relative to the upper support frame is set to be larger than resistance when the upper support frame tilts relative to the side support body . a left side portion and a right side portion both extending forward at left and right sides of the seated person; and a rear portion that continuously and integrally connects the left side portion and the right side portion , the left side portion and the right side portion are connected to side support bodies arranged on left and right sides of the seat to be tiltable, the backrest is connected to the upper support frame to be tiltable rearward, and characterized in that resistance when the backrest tilts rearward relative to the upper support frame is set to be larger than resistance when the upper support frame tilts relative to the side support body .
A method for wireless communications at a first user equipment (115,115-c), UE, comprising: receiving a codepoint configuration for a point to multipoint transmission scheme that indicates a mapping between a plurality of codepoint indexes, a plurality of multicast configurations, and a plurality of unicast configurations; receiving a control message that schedules a shared data channel transmission for at least one UE of a UE group comprising a plurality of UEs including the first UE, the control message comprising a first codepoint index of the plurality of codepoint indexes; identifying a transmission configuration that is one of a first multicast configuration of the plurality of multicast configurations or a first unicast configuration of the plurality of unicast configurations to apply for receiving the shared data channel transmission based at least in part on the mapping and the first codepoint index; and receiving the shared data channel transmission in accordance with the identified transmission configuration. receiving a codepoint configuration for a point to multipoint transmission scheme that indicates a mapping between a plurality of codepoint indexes, a plurality of multicast configurations, and a plurality of unicast configurations; receiving a control message that schedules a shared data channel transmission for at least one UE of a UE group comprising a plurality of UEs including the first UE, the control message comprising a first codepoint index of the plurality of codepoint indexes; identifying a transmission configuration that is one of a first multicast configuration of the plurality of multicast configurations or a first unicast configuration of the plurality of unicast configurations to apply for receiving the shared data channel transmission based at least in part on the mapping and the first codepoint index; and receiving the shared data channel transmission in accordance with the identified transmission configuration.
Valve apparatus consisting of at least one valve piston arranged in a valve housing such that it can be displaced longitudinally, said valve piston being moved by means of a drive along with an associated drive train and connecting or separating individual fluid connection points (A, B, P, T) present in the valve housing to or from one another, wherein, by means of a sensor device , the respective position of the drive train and thus the respective position of the valve piston in the valve housing is monitored, wherein the drive is an electric motor , wherein the drive train comprises a motor shaft that can be driven by the electric motor , and wherein the sensor device comprises a sensor , which monitors the motor shaft , characterised in that the motor shaft emerges with one of its ends in a gear unit , which controls a drive pinion with a gear shaft , said drive pinion meshing with a toothed rack , which interacts with the valve piston , and in that the sensor device comprises a sensor , which monitors the gear shaft . wherein, by means of a sensor device , the respective position of the drive train and thus the respective position of the valve piston in the valve housing is monitored, wherein the drive is an electric motor , wherein the drive train comprises a motor shaft that can be driven by the electric motor , and wherein the sensor device comprises a sensor , which monitors the motor shaft , characterised in that the motor shaft emerges with one of its ends in a gear unit , which controls a drive pinion with a gear shaft , said drive pinion meshing with a toothed rack , which interacts with the valve piston , and in that the sensor device comprises a sensor , which monitors the gear shaft .
A scroll-type fluid machine comprising: a body unit which has a fixed scroll having a lap formed on an end plate thereof, a turning scroll having a lap formed on an end plate thereof to face the lap of the fixed scroll , and a body casing which accommodates the fixed scroll and the turning scroll ; and a motor unit which has a drive shaft connected to the body unit to drive the body unit, a rotor rotating integrally with the drive shaft, a stator which imparts a rotational force to the rotor , and a motor casing which accommodates the drive shaft, the rotor and the stator , wherein a cooling fin is formed on a surface opposite to a surface on which the lap of the end plate is formed, on each of the fixed scroll and the turning scroll , characterized in that when a radial dimension of the end plate of the fixed scroll is defined as α, an axial dimension from a tip of a cooling fin of the fixed scroll to a tip of a cooling fin of the turning scroll is defined as lc, an axial dimension of the stator is defined as ls, and a radial dimension of the motor casing including the cooling fin is defined as Dm, a relation of α/16 + lc/4 ≤ ls ≤ α/4 + lc and a relation of α 2 /16 + αlc/4 ≤ Dmls ≤ α 2 /4 + αlc are satisfied. a body unit which has a fixed scroll having a lap formed on an end plate thereof, a turning scroll having a lap formed on an end plate thereof to face the lap of the fixed scroll , and a body casing which accommodates the fixed scroll and the turning scroll ; and a motor unit which has a drive shaft connected to the body unit to drive the body unit, a rotor rotating integrally with the drive shaft, a stator which imparts a rotational force to the rotor , and a motor casing which accommodates the drive shaft, the rotor and the stator , wherein a cooling fin is formed on a surface opposite to a surface on which the lap of the end plate is formed, on each of the fixed scroll and the turning scroll , characterized in that when a radial dimension of the end plate of the fixed scroll is defined as α, an axial dimension from a tip of a cooling fin of the fixed scroll to a tip of a cooling fin of the turning scroll is defined as lc, an axial dimension of the stator is defined as ls, and a radial dimension of the motor casing including the cooling fin is defined as Dm, a relation of α/16 + lc/4 ≤ ls ≤ α/4 + lc and a relation of α 2 /16 + αlc/4 ≤ Dmls ≤ α 2 /4 + αlc are satisfied.
A crawler type traveling body comprising: a drive wheel ; an in-wheel motor incorporated in the drive wheel ; a plurality of rotating wheels disposed below the drive wheel ; a crawler wound around the drive wheel and the rotating wheels and configured to be rotated by the drive wheel ; and a tensioner coupled to a drive shaft of the in-wheel motor and configured to press the drive wheel against the crawler to apply tension to the crawler . a drive wheel ; an in-wheel motor incorporated in the drive wheel ; a plurality of rotating wheels disposed below the drive wheel ; a crawler wound around the drive wheel and the rotating wheels and configured to be rotated by the drive wheel ; and a tensioner coupled to a drive shaft of the in-wheel motor and configured to press the drive wheel against the crawler to apply tension to the crawler .
A drug delivery device comprising a delivery unit receiving a drug cartridge containing a drug to be administered to a patient in need thereof, the delivery unit comprising a subcutaneous delivery mechanism including a needle , a needle support to which the needle is mounted, and a needle actuation mechanism configured to move the needle from a retracted position within a housing of the delivery unit , to an extended delivery position where the needle projects through a base wall of the housing, the needle actuation mechanism comprising a rotary actuator configured to engage an engagement lever coupled to the needle support for translating the needle support between retracted and extended delivery positions, characterized in that the needle support comprises a translation guide member slidably mounted with respect to the housing , and a rotation guide member rotatably mounted to the translation guide member , the needle being fixed to the rotation guide member configured to tilt the needle in a fully retracted park position after full retraction of the needle.
A flexible heat sink comprising: a flexible base having a first side configured to engage a heat generating component, and a second side opposite the first side ; and a plurality of fins , each fin extending from the second side of the base , and each fin comprising a flexible graphite ribbon assembly , wherein each fin comprises: first and second walls extending away from the second side of the base , each of the first and second walls having inner ends and outer ends , and a first panel parallel and adjacent to the base , the first panel connecting the inner end of the first wall to the inner end of the second wall ; wherein the plurality of fins comprises a row of fins with the first walls and second walls of the fins extending in respective first and second planes, the row comprising one or more second panels parallel and adjacent to the base , each second panel situated in between and joining the first panels of two adjacent fins , the second panels spacing apart the fins and enabling the heat sink to flex lengthwise along the one row. a flexible base having a first side configured to engage a heat generating component, and a second side opposite the first side ; and a plurality of fins , each fin extending from the second side of the base , and each fin comprising a flexible graphite ribbon assembly , wherein each fin comprises: first and second walls extending away from the second side of the base , each of the first and second walls having inner ends and outer ends , and a first panel parallel and adjacent to the base , the first panel connecting the inner end of the first wall to the inner end of the second wall ; first and second walls extending away from the second side of the base , each of the first and second walls having inner ends and outer ends , and a first panel parallel and adjacent to the base , the first panel connecting the inner end of the first wall to the inner end of the second wall ; wherein the plurality of fins comprises a row of fins with the first walls and second walls of the fins extending in respective first and second planes, the row comprising one or more second panels parallel and adjacent to the base , each second panel situated in between and joining the first panels of two adjacent fins , the second panels spacing apart the fins and enabling the heat sink to flex lengthwise along the one row.
A copolymer, wherein the copolymer comprises at least a first monomer unit represented by formula (I), a second monomer unit represented by formula (II), and a third monomer unit represented by formula (III): in which R 1 , R 2 , R 3 , R 5 , R 6 , R 7 , R 9 , R 10 , and R 11 are each independently selected from hydrogen or C1-C8 alkyl groups; R 4 is selected from hydrogen, substituted or unsubstituted C1-C8 alkyl groups; R 8 is selected from -COOM and sodium sulfonate phenyl, in which M is selected from H, and positive monovalent (+1) alkali metal ion; R 12 is selected from unsubstituted or substituted C1-C8 alkyl groups, and n is 0 or 1; wherein the first monomer unit comprises monomer units derived from A1 monomer: wherein the second monomer unit comprises monomer units derived from B1 monomer: wherein the third monomer unit comprises monomer units derived from C2 monomer: wherein based on the total moles of the first monomer unit, the second monomer unit, and the third monomer unit, the first monomer unit is present in an amount of from 60mol% to 80mol%; wherein based on the total moles of the first monomer unit, the second monomer unit and the third monomer unit, the second monomer unit is present in an amount of from 8mol% to 18mol%. wherein based on the total moles of the first monomer unit, the second monomer unit and the third monomer unit, the third monomer unit is present in an amount of from 12mol% to 24mol%. in which R 1 , R 2 , R 3 , R 5 , R 6 , R 7 , R 9 , R 10 , and R 11 are each independently selected from hydrogen or C1-C8 alkyl groups; R 4 is selected from hydrogen, substituted or unsubstituted C1-C8 alkyl groups; R 8 is selected from -COOM and sodium sulfonate phenyl, in which M is selected from H, and positive monovalent (+1) alkali metal ion; R 12 is selected from unsubstituted or substituted C1-C8 alkyl groups, and n is 0 or 1; wherein the first monomer unit comprises monomer units derived from A1 monomer: wherein the second monomer unit comprises monomer units derived from B1 monomer: wherein the third monomer unit comprises monomer units derived from C2 monomer: wherein based on the total moles of the first monomer unit, the second monomer unit, and the third monomer unit, the first monomer unit is present in an amount of from 60mol% to 80mol%; wherein based on the total moles of the first monomer unit, the second monomer unit and the third monomer unit, the second monomer unit is present in an amount of from 8mol% to 18mol%. wherein based on the total moles of the first monomer unit, the second monomer unit and the third monomer unit, the third monomer unit is present in an amount of from 12mol% to 24mol%.
A vacuum cleaner comprising: a main casing ; a driving wheel for enabling the main casing to travel; control means for controlling drive of the driving wheels to thereby make the main casing autonomously travel, a cleaning unit for cleaning a cleaning-object surface; image pickup means disposed apart from each other in the main casing and serving for picking up images on a traveling-direction side of the main casing with their fields of view overlapping with each other; and calculation means for calculating a depth of an object distanced from the image pickup means based on images picked up by the image pickup means , characterized in that the vacuum cleaner further comprises: a discrimination part for discriminating whether or not the object is an obstacle based on the depth of the object calculated by the calculation means , and in that the discrimination part is configured to detect gaps in the heightwise direction which the main casing can enter. a main casing ; a driving wheel for enabling the main casing to travel; control means for controlling drive of the driving wheels to thereby make the main casing autonomously travel, a cleaning unit for cleaning a cleaning-object surface; image pickup means disposed apart from each other in the main casing and serving for picking up images on a traveling-direction side of the main casing with their fields of view overlapping with each other; and calculation means for calculating a depth of an object distanced from the image pickup means based on images picked up by the image pickup means , characterized in that the vacuum cleaner further comprises: a discrimination part for discriminating whether or not the object is an obstacle based on the depth of the object calculated by the calculation means , and in that the discrimination part is configured to detect gaps in the heightwise direction which the main casing can enter.
A container (10; 110) comprising a thermoformed body (12; 112) having a side wall (12'; 112'), a bottom (14; 114) and an opening (10': 110') opposite to the bottom, the side wall having at least one convex portion (11A, 11C; 111A, 111B, 111C, 111D) forming a corner that extends in height, said convex portion forming a corner has at least one planar facet (13A, 13C; 113A, 113B, 113C, 113D) forming a flat forming in horizontal cross-section a chord for the arc formed by the convex portion, this arc being removed in the region where the chord is present, characterized in that said at least one facet (13A, 13C; 113A, 113B, 113C, 113D) extends to the bottom (14; 114) from an initial area (13'; 113') located in the vicinity of the edge of the opening (10'; 110').
A hygienic thin-leaf paper comprising: a first sheet including one or more first embossed regions in each of which one or more first embossed protrusions and one or more first non-embossed protrusions are included, the first sheet including one or more first non-embossed regions in each of which a first embossed protrusion and a first non-embossed protrusion are not included; a second sheet including one or more second embossed regions in each of which one or more second embossed protrusions and one or more second non-embossed protrusions are included, the second sheet including one or more second non-embossed regions in each of which a second embossed protrusion and a second non-embossed protrusion are not included, wherein the first sheet and the second sheet are integrally laminated, wherein the first embossed protrusions include multiple first dotted embossed protrusions and multiple first linear embossed protrusions, wherein the second embossed protrusions include multiple second dotted embossed protrusions and multiple second linear embossed protrusions, wherein each first non-embossed region faces a given second linear embossed protrusion, and wherein each second non-embossed region faces a given first linear embossed protrusion. a first sheet including one or more first embossed regions in each of which one or more first embossed protrusions and one or more first non-embossed protrusions are included, the first sheet including one or more first non-embossed regions in each of which a first embossed protrusion and a first non-embossed protrusion are not included; a second sheet including one or more second embossed regions in each of which one or more second embossed protrusions and one or more second non-embossed protrusions are included, the second sheet including one or more second non-embossed regions in each of which a second embossed protrusion and a second non-embossed protrusion are not included, wherein the first sheet and the second sheet are integrally laminated, wherein the first embossed protrusions include multiple first dotted embossed protrusions and multiple first linear embossed protrusions, wherein the second embossed protrusions include multiple second dotted embossed protrusions and multiple second linear embossed protrusions, wherein each first non-embossed region faces a given second linear embossed protrusion, and wherein each second non-embossed region faces a given first linear embossed protrusion.
Equipment device of a vehicle, with a base and an adjustment part , movable in translation and/or in rotation relative to the base, which is movable along a path between a first end position and a second end position and can be locked in at least one position with a locking device with first locking means which are associated with the adjustment part and second locking means which are associated with the base , with a control device with first control means which are associated with the adjustment part and second control means which are associated with the base , with which control means the locking device is adjustable between a catch position and a release position depending on the position of the adjustment part , characterized in that the one set of control means comprises a first switching element arranged on a first end region of the path and a second switching element arranged on a second end region, wherein a movable setting device of the other set of control means can be actuated by means of each switching element in such a way that locking means which are in an operative connection with the setting device are movable between a catch position and a release position.
A method for controlling hydrogen combustion in a hydrogen internal combustion engine system comprising a combustion chamber linked to an intake port via an intake valve , and linked to an exhaust port via an exhaust valve , the hydrogen internal combustion engine system further comprising a piston slidably moving between a top dead center position (TDC) and a bottom dead center position (BDC), characterized by the steps of: - injecting (A) water (W) in liquid phase in the intake port when the piston is between 0 and 40 crank angle degrees before opening (B) of the intake valve , - injecting (C) hydrogen after opening (B) of the intake valve and when the piston is between 0 and 60 crank angle degrees after the top dead center position (TDC), - stopping (D) hydrogen (H) injection when the piston is between 0 and 100 crank angle degrees before the bottom dead center position (BDC). - injecting (A) water (W) in liquid phase in the intake port when the piston is between 0 and 40 crank angle degrees before opening (B) of the intake valve , - injecting (C) hydrogen after opening (B) of the intake valve and when the piston is between 0 and 60 crank angle degrees after the top dead center position (TDC), - stopping (D) hydrogen (H) injection when the piston is between 0 and 100 crank angle degrees before the bottom dead center position (BDC).