mhurhangee/patent-ind-claim-en huggingface dataset:
A method for weaving a fabric (F), with warp yarns and inwoven weft yarns (61, 62, W1-W5), on a loom which comprises: - a warp delivery unit ; - heddles for moving warp yarns in order to form a shed; - a mechanism for moving (F1) each heddle vertically along a vertical path; - weft insertion means for inserting each weft yarn in a shed (S1, S2) and for releasing the weft yarn at a given location along a weft axis (Y1, Y2); and - weft delivery means for delivering weft yarns (61, 62, W1-W5) to the weft insertion means this method comprising, for at least two consecutive picks, at least the following steps consisting in: a) opening the shed (S1, S2); b) picking, by the weft insertion means , of a first end of a weft yarn (61, 62, W1-W5) presented by the weft delivery means ; c) drawing (A3) the weft yarn into the shed, along the weft axis (Y1, Y2); d) releasing the weft yarn at the predetermined position along the weft axis; e) withdrawing the insertion means from the shed; and f) beating-up the weft yarn characterized in that , during step c), the shed is closed around the inserted weft yarn , by moving warp yarns of a predetermined group (G4, G4') of warp yarns to a semi-closed position. - a warp delivery unit ; - heddles for moving warp yarns in order to form a shed; - a mechanism for moving (F1) each heddle vertically along a vertical path; - weft insertion means for inserting each weft yarn in a shed (S1, S2) and for releasing the weft yarn at a given location along a weft axis (Y1, Y2); and - weft delivery means for delivering weft yarns (61, 62, W1-W5) to the weft insertion means this method comprising, for at least two consecutive picks, at least the following steps consisting in: a) opening the shed (S1, S2); b) picking, by the weft insertion means , of a first end of a weft yarn (61, 62, W1-W5) presented by the weft delivery means ; c) drawing (A3) the weft yarn into the shed, along the weft axis (Y1, Y2); d) releasing the weft yarn at the predetermined position along the weft axis; e) withdrawing the insertion means from the shed; and f) beating-up the weft yarn characterized in that , during step c), the shed is closed around the inserted weft yarn , by moving warp yarns of a predetermined group (G4, G4') of warp yarns to a semi-closed position. a) opening the shed (S1, S2); b) picking, by the weft insertion means , of a first end of a weft yarn (61, 62, W1-W5) presented by the weft delivery means ; c) drawing (A3) the weft yarn into the shed, along the weft axis (Y1, Y2); d) releasing the weft yarn at the predetermined position along the weft axis; e) withdrawing the insertion means from the shed; and f) beating-up the weft yarn
A steering assembly for a lawn maintenance vehicle having a frame , said steering assembly comprising: a control assembly including a steering wheel operatively connected to a pinion gear ; a transfer assembly including a sector gear and a pair of tie rods , wherein said sector gear is operatively connected to said frame and rotatable relative thereto, said sector gear having an arcuate leading edge forming a rack that is meshingly engaged with said pinion gear , said leading edge forming said rack of said sector gear being directed forwardly, said pair of tie rods being operatively connected to said sector gear ; and a pair of wheel assemblies , wherein each tie rod of said transfer assembly is attachable to one of said wheel assemblies , and movement of said tie rods in response to rotation of said sector gear causes said wheel assemblies to rotate; characterized in that a. each of said wheel assemblies includes a knuckle having an axle attached thereto, a rim receiving said axle , and a tire mounted on said rim , b. said knuckle of each of said wheel assemblies is operatively connected to a pivot bar by a kingpin , said pivot bar being operatively connected to said frame , and c. each kingpin is positioned within said rim . a control assembly including a steering wheel operatively connected to a pinion gear ; a transfer assembly including a sector gear and a pair of tie rods , wherein said sector gear is operatively connected to said frame and rotatable relative thereto, said sector gear having an arcuate leading edge forming a rack that is meshingly engaged with said pinion gear , said leading edge forming said rack of said sector gear being directed forwardly, said pair of tie rods being operatively connected to said sector gear ; and a pair of wheel assemblies , wherein each tie rod of said transfer assembly is attachable to one of said wheel assemblies , and movement of said tie rods in response to rotation of said sector gear causes said wheel assemblies to rotate; characterized in that a. each of said wheel assemblies includes a knuckle having an axle attached thereto, a rim receiving said axle , and a tire mounted on said rim , b. said knuckle of each of said wheel assemblies is operatively connected to a pivot bar by a kingpin , said pivot bar being operatively connected to said frame , and c. each kingpin is positioned within said rim . a. each of said wheel assemblies includes a knuckle having an axle attached thereto, a rim receiving said axle , and a tire mounted on said rim , b. said knuckle of each of said wheel assemblies is operatively connected to a pivot bar by a kingpin , said pivot bar being operatively connected to said frame , and c. each kingpin is positioned within said rim .
Method for assisted upshifting during a gear change of a transmission connected to a combustion engine, comprising: initiation of an upshifting process; and reduction of an engine speed of the combustion engine by switching to an engine-braking mode, wherein: a) a variable valve gear , in particular a trip cam system , of the combustion engine serves for switching to the engine-braking mode; and b) in the engine-braking mode a first exhaust valve of the combustion engine is at first kept closed during the compression stroke and/or during the exhaust stroke for the compression of air and is opened, for decompression of the compressed air, before a top dead centre of a piston movement is reached; keeping a second exhaust valve of the combustion engine closed during the upshifting process, wherein the second exhaust valve is assigned to the same cylinder of the combustion engine as the first exhaust valve . initiation of an upshifting process; and reduction of an engine speed of the combustion engine by switching to an engine-braking mode, wherein: a) a variable valve gear , in particular a trip cam system , of the combustion engine serves for switching to the engine-braking mode; and b) in the engine-braking mode a first exhaust valve of the combustion engine is at first kept closed during the compression stroke and/or during the exhaust stroke for the compression of air and is opened, for decompression of the compressed air, before a top dead centre of a piston movement is reached; keeping a second exhaust valve of the combustion engine closed during the upshifting process, wherein the second exhaust valve is assigned to the same cylinder of the combustion engine as the first exhaust valve . a) a variable valve gear , in particular a trip cam system , of the combustion engine serves for switching to the engine-braking mode; and b) in the engine-braking mode a first exhaust valve of the combustion engine is at first kept closed during the compression stroke and/or during the exhaust stroke for the compression of air and is opened, for decompression of the compressed air, before a top dead centre of a piston movement is reached;
A method of assembling vehicle parts, the method comprising: measuring at least one of a dimension or a characteristic of each of a plurality of types of vehicle parts , and, for types of vehicle parts of which there are a plurality in stock, measuring at least one of a dimension or a characteristic of each one of the plurality of vehicle parts that are in stock (A1-A10, B1-B10, C1-C10, D1-D10, E1-E10); determining a combination of the plurality of types of vehicle parts by selecting specific vehicle parts from among the types of vehicle parts of which there are a plurality in stock, such that the selected specific vehicle parts closely approximate specific vehicle specification reference values (θ1, θ2, IL, IW, H); and assembling the plurality of types of vehicle parts in accordance with the combination that has been determined. measuring at least one of a dimension or a characteristic of each of a plurality of types of vehicle parts , and, for types of vehicle parts of which there are a plurality in stock, measuring at least one of a dimension or a characteristic of each one of the plurality of vehicle parts that are in stock (A1-A10, B1-B10, C1-C10, D1-D10, E1-E10); determining a combination of the plurality of types of vehicle parts by selecting specific vehicle parts from among the types of vehicle parts of which there are a plurality in stock, such that the selected specific vehicle parts closely approximate specific vehicle specification reference values (θ1, θ2, IL, IW, H); and assembling the plurality of types of vehicle parts in accordance with the combination that has been determined.
A gas turbine engine comprising: a compressor section having a low pressure compressor and a high pressure compressor having a downstream end ; a cooling air system including a tap from a location upstream of said downstream most end , said tap passing air to a boost compressor , and said boost compressor passing the air back to a location to be cooled, characterized in that said boost compressor is driven by a shaft in said engine through an epicyclic gear system , and there being a speed control for changing the relative speed between an input and an output to said epicyclic gear system . a compressor section having a low pressure compressor and a high pressure compressor having a downstream end ; a cooling air system including a tap from a location upstream of said downstream most end , said tap passing air to a boost compressor , and said boost compressor passing the air back to a location to be cooled, characterized in that said boost compressor is driven by a shaft in said engine through an epicyclic gear system , and there being a speed control for changing the relative speed between an input and an output to said epicyclic gear system .
Heating disk for heating up a stream of exhaust gas and/or a component for exhaust gas aftertreatment, with a honeycomb body, which is wound from a plurality of smooth and corrugated metal layers stacked one on top of the other, with a carrier shell , in which the honeycomb body is received, and with an electrical contact structure, which is fed through the carrier shell and via which the honeycomb body can be connected to a current source, wherein, in the region enclosed by the carrier shell , the electrical contact structure has a contact strip extending in the circumferential direction of the carrier shell , wherein an insulating region is formed between the carrier shell and the contact strip , wherein a plurality of stacks of layers electrically insulated from one another, which are each formed from a plurality of smooth metal layers and corrugated metal layers and which are arranged directly adjacent to one another, are connected electrically conductively to the contact strip , characterized in that the carrier shell has a radially outwardly directed bulge , which forms a receptacle for the contact strip extending in the circumferential direction.
An emitter system for irradiating asphalt pavement, characterized by : a structural frame; an insulating layer of a high-density ceramic, an emitter panel including an emitter selected from the group consisting of an elongated semiconductor or a resistance conductor; and a sheet of biaxial birefringent micaceous material, wherein the emitter panel is positioned between the insulating layer and the sheet of biaxial birefringent micaceous material; and wherein the emitter panel is configured to produce energy with a power density of from 0.465 to 2.325 W/cm 2 (3 to 15 W/in 2 ). a structural frame; an insulating layer of a high-density ceramic, an emitter panel including an emitter selected from the group consisting of an elongated semiconductor or a resistance conductor; and a sheet of biaxial birefringent micaceous material, wherein the emitter panel is positioned between the insulating layer and the sheet of biaxial birefringent micaceous material; and wherein the emitter panel is configured to produce energy with a power density of from 0.465 to 2.325 W/cm 2 (3 to 15 W/in 2 ).
A rotation apparatus, comprises a machine base and a stator , wherein the machine base comprises a driving end intermediate support board and a non-driving end intermediate support board arranged parallel to each other and perpendicular to a longitudinal axis of the machine base, inner holes used for supporting the stator are separately provided on the driving end intermediate support board and the non-driving end intermediate support board , the inner holes each having an upper half and a lower half, wherein the upper half of the inner hole on the driving end intermediate support board is asymmetrical to its lower half, the stator is in partial contact with upper half of the driving end intermediate support board and in semi-circular full contact with the lower half of the driving end intermediate support board so that a gap between the stator and the driving end intermediate support board forms an upper flow channel for passing air flow and wherein a structure of a lower half of the driving end intermediate support board is different from a structure of a lower half of the non-driving end intermediate support board , so that a lower flow channel is formed by a side board and a bottom board of the machine base and an outer side of the lower half of the driving end intermediate support board , to allow passage of air flow axially flowing along a periphery of the stator and outflowing through said lower flow channel .
A percussion instrument comprising: a substantially cylindrical barrel ; and a plurality of weights fixed to the barrel , wherein the plurality of weights are fixed to the barrel at intervals in the circumferential direction of the barrel using a single bolt each, and the percussion instrument further comprises a functional part configured to be attached to the barrel, and wherein the weights are provided on an inner circumferential surface of the barrel and wherein the functional part is attached to an outer circumferential surface of the barrel and characterized in that the weights have a hole through which the bolt is to be inserted, and wherein the weights have a teardrop shape when seen in the axial direction of the hole, and are disposed so that the lengthwise direction of the weights is substantially parallel to the axial direction of the barrel , wherein the weights have a protrusion protruding toward the barrel, and the protrusion is in contact with the barrel when the weight is fixed to the functional part by the bolt inserted into the hole . a substantially cylindrical barrel ; and a plurality of weights fixed to the barrel , wherein the plurality of weights are fixed to the barrel at intervals in the circumferential direction of the barrel using a single bolt each, and the percussion instrument further comprises a functional part configured to be attached to the barrel, and wherein the weights are provided on an inner circumferential surface of the barrel and wherein the functional part is attached to an outer circumferential surface of the barrel and characterized in that the weights have a hole through which the bolt is to be inserted, and wherein the weights have a teardrop shape when seen in the axial direction of the hole, and are disposed so that the lengthwise direction of the weights is substantially parallel to the axial direction of the barrel , wherein the weights have a protrusion protruding toward the barrel, and the protrusion is in contact with the barrel when the weight is fixed to the functional part by the bolt inserted into the hole .
A cartridge (B) insertable into a main assembly (A) of an image forming apparatus, comprising: a first unit including a first bearing portion for supporting an image bearing member ; a second unit including a second bearing portion for supporting a developer carrying member ; and a storing medium including an electrical contact (101a1, 101a2), wherein said electrical contact (101a1, 101a2) is faced toward a downstream in an inserting direction (C) of said cartridge (B) into the main assembly (A), characterized in that said second bearing portion is provided inside said first bearing portion with respect to a rotational axis direction of said image bearing member , at least a part of said storing medium is supported by said second unit and is provided at a position outside said second bearing portion and inside an outermost configuration of said first unit with respect to the rotational axis direction, and said storing medium is provided upstream of the image bearing member in the inserting direction (C) of said cartridge (B). a first unit including a first bearing portion for supporting an image bearing member ; a second unit including a second bearing portion for supporting a developer carrying member ; and a storing medium including an electrical contact (101a1, 101a2), wherein said electrical contact (101a1, 101a2) is faced toward a downstream in an inserting direction (C) of said cartridge (B) into the main assembly (A), characterized in that said second bearing portion is provided inside said first bearing portion with respect to a rotational axis direction of said image bearing member , at least a part of said storing medium is supported by said second unit and is provided at a position outside said second bearing portion and inside an outermost configuration of said first unit with respect to the rotational axis direction, and said storing medium is provided upstream of the image bearing member in the inserting direction (C) of said cartridge (B).
Machine for the working of tubes (T) and other similar blanks, such as, for example, bars and profiled sections, comprising a working apparatus arranged to carry out one or more working operations on a tube (T), and a tube feeding device arranged to feed the tube (T) towards the working apparatus , wherein the working apparatus and the tube feeding device comprise respective clamping members for clamping the tube (T) during the working operation, characterized in that at least one of the clamping members of the working apparatus and of the tube feeding device is provided with a displacement sensor arranged to detect and measure in a contactless manner any movements of the tube (T) relative to said clamping member while the tube (T) is clamped by said clamping member during the working operation.
An information processing system comprising: a controller configured to: obtain a plurality of images having different depth positions; divide the plurality of images into a plurality of sub-regions; generate for each sub-region in-focus position information which corresponds to a depth position; and store the plurality of images and the in-focus position information in an image management server ; wherein the in-focus position information indicates at least one of the plurality of images in an in-focus state; and wherein the in-focus position information includes at least one of a color distribution map or a look-up table. a controller configured to: obtain a plurality of images having different depth positions; divide the plurality of images into a plurality of sub-regions; generate for each sub-region in-focus position information which corresponds to a depth position; and store the plurality of images and the in-focus position information in an image management server ; obtain a plurality of images having different depth positions; divide the plurality of images into a plurality of sub-regions; generate for each sub-region in-focus position information which corresponds to a depth position; and store the plurality of images and the in-focus position information in an image management server ; wherein the in-focus position information indicates at least one of the plurality of images in an in-focus state; and wherein the in-focus position information includes at least one of a color distribution map or a look-up table.
A mounting layer configured to mount at least two light emitting semiconductor devices, the mounting layer comprising a sheet of material, the mounting layer further comprising a corner protrusion and an edge protrusion configured to align the mounting layer to a cooling structure , the mounting layer further comprising aligning holes defining mounting areas configured to mount the light emitting semiconductor devices, the sheet of material being configured to be directly bonded or welded to the cooling structure .
Detector cell for a photoacoustic gas sensor comprising a first layer structure ; a second layer structure arranged at the first layer structure and comprising a membrane structure ; and a third layer structure arranged at the second layer structure ; wherein the first layer structure and the third layer structure hermetically enclose a cavity and wherein the membrane structure is arranged in the cavity ; characterized in that a coating layer reflective for electromagnetic radiation is arranged at a surface of the first layer structure facing the membrane structure or at a surface of the third layer structure facing the membrane structure . a first layer structure ; a second layer structure arranged at the first layer structure and comprising a membrane structure ; and a third layer structure arranged at the second layer structure ; wherein the first layer structure and the third layer structure hermetically enclose a cavity and wherein the membrane structure is arranged in the cavity ; characterized in that a coating layer reflective for electromagnetic radiation is arranged at a surface of the first layer structure facing the membrane structure or at a surface of the third layer structure facing the membrane structure .
A method of wireless communication, comprising: selecting a first user equipment, UE, and a second UE from a group of UEs for transmission of frequency-orthogonal or spreading code-orthogonal uplink control messages in a same time slot; transmitting scheduling information via one or more first downlink messages to the first UE in a first beam; transmitting scheduling information via one or more second downlink messages to the second UE in a second beam; receiving , in response to the transmission of the one or more first downlink messages, one or more first uplink control messages from the first UE in a time slot; and receiving , in response to the transmission of the one or more second downlink messages, one or more second uplink control messages from the second UE in the time slot, the one or more second uplink control messages being frequency-orthogonal or spreading code-orthogonal to the one or more first uplink control messages. selecting a first user equipment, UE, and a second UE from a group of UEs for transmission of frequency-orthogonal or spreading code-orthogonal uplink control messages in a same time slot; transmitting scheduling information via one or more first downlink messages to the first UE in a first beam; transmitting scheduling information via one or more second downlink messages to the second UE in a second beam; receiving , in response to the transmission of the one or more first downlink messages, one or more first uplink control messages from the first UE in a time slot; and receiving , in response to the transmission of the one or more second downlink messages, one or more second uplink control messages from the second UE in the time slot, the one or more second uplink control messages being frequency-orthogonal or spreading code-orthogonal to the one or more first uplink control messages.