mhurhangee/ep-ind-claims huggingface dataset:
A tire comprising: a carcass ply which extends from one bead to another bead; side-wall rubber which is disposed at an outer side in a tire-width direction of the carcass ply; and tread rubber which is disposed at an outer side in a tire-radial direction of the carcass ply, wherein the side-wall rubber and the tread rubber are laminated at a tire outer surface side of a region of at least part of the carcass ply, characterised in that an electronic component is disposed between the side-wall rubber and the tread rubber. a carcass ply which extends from one bead to another bead; side-wall rubber which is disposed at an outer side in a tire-width direction of the carcass ply; and tread rubber which is disposed at an outer side in a tire-radial direction of the carcass ply, wherein the side-wall rubber and the tread rubber are laminated at a tire outer surface side of a region of at least part of the carcass ply, characterised in that an electronic component is disposed between the side-wall rubber and the tread rubber.
A tubular coupling (1, 1'), characterized in that it comprises a female endpiece (2, 2') presenting a tubular hollow body that extends along an axial direction and that forms an axial orifice into which a male endpiece provided with a collar is designed to be inserted axially, in that said hollow body of said female endpiece (2, 2') comprises a latching locking member (11, 11') that extends axially along said hollow body and that is designed to be deformed elastically in a radial direction by mechanical interference with said collar during said insertion of said male endpiece into said orifice of said female endpiece (2, 2') and to become locked against the back of said collar when said male endpiece is pushed fully into said orifice of said female endpiece (2, 2'), in that it further comprises a ring (5, 5') mounted to slide coaxially with said orifice around said female endpiece (2, 2') and that forms a ramp that is oblique relative to the axial direction and that is inclined radially towards the outside of said hollow body in order to deform said locking member (11, 11') elastically in a radial direction by the lever effect when said ring (5, 5') is subjected to axial traction in the direction for inserting said male endpiece into said female endpiece (2, 2') so as to release said male endpiece from said female endpiece (2, 2').
A process for production of cemented carbide comprising WC grains, 3 wt.% to 20 wt.% binder selected from Co or Co and Ni and grain growth inhibitors wherein the WC mean grain size lies in the range of 180 nm and 230 nm, at least 10±2 % of the WC grains are finer than 50 nm and 7±2% WC grains have a size from 50 to 100 nm, the process including the following stages: • milling WC powder with specific surface area of 3.0 m 2 /g or higher with binder and grain-growth inhibitors; • pressing green parts; • pre-sintering the green parts in H2 at 400°C to 900°C for 5 to 30 min; • sintering in vacuum at temperatures of 1340°C to 1410°C for 3 min to 20 min; and • HIP-sintering in Ar at pressures of 40 to 100 bar at temperatures of 1340°C to 1410°C for 1 to 20 min. • milling WC powder with specific surface area of 3.0 m 2 /g or higher with binder and grain-growth inhibitors; • pressing green parts; • pre-sintering the green parts in H2 at 400°C to 900°C for 5 to 30 min; • sintering in vacuum at temperatures of 1340°C to 1410°C for 3 min to 20 min; and • HIP-sintering in Ar at pressures of 40 to 100 bar at temperatures of 1340°C to 1410°C for 1 to 20 min.
A method for dynamic allocation of radio uplink, UL, Physical Resource Block pairs, PRB pairs, of a plurality of subframes in a cell of a Frequency Division Multiple Access, FDMA, Radio Access Network, RAN,, the method comprising: for each of the plurality of subframes, using a bandwidth layout in frequency domain for an UL bandwidth of the cell, which bandwidth is divided into a plurality of PRB pairs, in which bandwidth layout an inner region for a Physical Uplink Shared Channel, PUSCH, is positioned between outer regions (22a, 22b) for a Physical Uplink Control Channel, PUCCH; for each of the outer regions (22a, 22b), using a PUCCH layout, which PUCCH layout comprises a plurality of sections (23a, 23b, 23c) of which an innermost section is for PUCCH Format 1 and a middle section and an outermost section are for PUCCH Formats 2 and 3, wherein the innermost section comprises a plurality of parts (31a, 31b, 31c) of which an innermost part is for Scheduling Requests, SR,; depending on the traffic load of the cell, dynamically allocating, contiguously inwards, PRB pairs to SRs in the innermost section of the outer regions in the plurality of subframes in accordance with the PUCCH layout; and contiguously extending the inner region as allowed by the dynamic allocation of PRB pairs in the outer regions in each of the plurality of subframes. for each of the plurality of subframes, using a bandwidth layout in frequency domain for an UL bandwidth of the cell, which bandwidth is divided into a plurality of PRB pairs, in which bandwidth layout an inner region for a Physical Uplink Shared Channel, PUSCH, is positioned between outer regions (22a, 22b) for a Physical Uplink Control Channel, PUCCH; for each of the outer regions (22a, 22b), using a PUCCH layout, which PUCCH layout comprises a plurality of sections (23a, 23b, 23c) of which an innermost section is for PUCCH Format 1 and a middle section and an outermost section are for PUCCH Formats 2 and 3, wherein the innermost section comprises a plurality of parts (31a, 31b, 31c) of which an innermost part is for Scheduling Requests, SR,; depending on the traffic load of the cell, dynamically allocating, contiguously inwards, PRB pairs to SRs in the innermost section of the outer regions in the plurality of subframes in accordance with the PUCCH layout; and contiguously extending the inner region as allowed by the dynamic allocation of PRB pairs in the outer regions in each of the plurality of subframes.
An accelerometer arrangement for determining accelerations of an inground tool along three orthogonal axes during an inground operation that exposes the accelerometer arrangement to a mechanical shock and vibration environment, said accelerometer arrangement comprising: a first MEMS triaxial accelerometer and a second MEMS triaxial accelerometer, each of which includes a set of three orthogonally arranged accelerometer sensing axes including a pair of in-plane sensing axes and a normal sensing axis with the normal sensing axis having a higher rate of failure responsive to mechanical shock and vibration than the in-plane sensing axes; a support structure (50, 52) for supporting the first and second triaxial accelerometers such that the normal sensing axis of the first triaxial accelerometer is at least generally orthogonal to the normal sensing axis of the second triaxial accelerometer; and a processor for determining the accelerations along said three orthogonal axes based on a combination of sensing axis outputs from the first and second triaxial accelerometers without using the normal sensing axis output of each of the first and second triaxial accelerometers. a first MEMS triaxial accelerometer and a second MEMS triaxial accelerometer, each of which includes a set of three orthogonally arranged accelerometer sensing axes including a pair of in-plane sensing axes and a normal sensing axis with the normal sensing axis having a higher rate of failure responsive to mechanical shock and vibration than the in-plane sensing axes; a support structure (50, 52) for supporting the first and second triaxial accelerometers such that the normal sensing axis of the first triaxial accelerometer is at least generally orthogonal to the normal sensing axis of the second triaxial accelerometer; and a processor for determining the accelerations along said three orthogonal axes based on a combination of sensing axis outputs from the first and second triaxial accelerometers without using the normal sensing axis output of each of the first and second triaxial accelerometers.
An operating method of a Base Station, BS (530,540; 730, 740), in a broadband wireless communication system supporting Multi-User, MU, Multiple Input Multiple Output, MIMO, technique, the method comprising: receiving (905, 1015) a cooperative transmission REQuest, REQ, message (513, 715) that comprises information designating at least one Mobile Station, MS (510, 520; 710, 720), a single variable determining a permutation pattern, and at least one of a pilot pattern (401 - 404) of each of the at least one MS (510, 520; 710, 720) and an orthogonal code of each of the at least one MS (510, 520; 710, 720), from a control station (550;750); allocating (907, 1017) a resource of a predefined Coordinated MultiPoint transmit/receive, CoMP, zone occupying part of a frame, to the at least one MS (510, 520; 710, 720) designated by the cooperative transmission REQ message (513, 715); and communicating (911, 1021) with the at least one MS (510, 520; 710, 720) according to a cooperative transmission scheme through the resource of the CoMP zone, wherein the communicating according to the cooperative transmission scheme comprises: permutating a transmit signal of the CoMP zone according to a permutation rule defined by the variable determining the permutation pattern; and de-permutating a receive signal of the CoMP zone according to the permutation rule defined by the variable determining the permutation pattern. receiving (905, 1015) a cooperative transmission REQuest, REQ, message (513, 715) that comprises information designating at least one Mobile Station, MS (510, 520; 710, 720), a single variable determining a permutation pattern, and at least one of a pilot pattern (401 - 404) of each of the at least one MS (510, 520; 710, 720) and an orthogonal code of each of the at least one MS (510, 520; 710, 720), from a control station (550;750); allocating (907, 1017) a resource of a predefined Coordinated MultiPoint transmit/receive, CoMP, zone occupying part of a frame, to the at least one MS (510, 520; 710, 720) designated by the cooperative transmission REQ message (513, 715); and communicating (911, 1021) with the at least one MS (510, 520; 710, 720) according to a cooperative transmission scheme through the resource of the CoMP zone, permutating a transmit signal of the CoMP zone according to a permutation rule defined by the variable determining the permutation pattern; and de-permutating a receive signal of the CoMP zone according to the permutation rule defined by the variable determining the permutation pattern.
A solar cell module comprising: a front-surface protection member; a back-surface protection film; a plurality of solar cells provided between the front-surface protection member and the back-surface protection film and electrically connected to one another by first wiring members; a sealant sealing the plurality of solar cells between the front-surface protection member and the back-surface protection film; and a connecting wire electrically connected to a second wiring member located at an end portion of a string of the plurality of solar cells, wherein the second wiring member is connected to the connecting wire in such a way that a bent portion of the second wiring member is disposed to be opposed to the back-surface protection film; characterized in that the second wiring member is bent at an end of the connecting wire to run around from the back surface of the connecting wire to the lateral side surface of the connecting wire so that an end portion of the second member extends toward the front-surface protection member. a front-surface protection member; a back-surface protection film; a plurality of solar cells provided between the front-surface protection member and the back-surface protection film and electrically connected to one another by first wiring members; a sealant sealing the plurality of solar cells between the front-surface protection member and the back-surface protection film; and a connecting wire electrically connected to a second wiring member located at an end portion of a string of the plurality of solar cells, wherein the second wiring member is connected to the connecting wire in such a way that a bent portion of the second wiring member is disposed to be opposed to the back-surface protection film; characterized in that the second wiring member is bent at an end of the connecting wire to run around from the back surface of the connecting wire to the lateral side surface of the connecting wire so that an end portion of the second member extends toward the front-surface protection member.
A combine harvester comprising: a crop processing mechanism; and an elevator assembly for conveying harvested crop to the crop processing mechanism, the elevator assembly including: an elevator housing having an inlet, an endless conveyor mounted for rotation within the elevator housing about a shaft (38, 40), characterised in that a sprocket stripper is mounted adjacent the shaft (38, 40), the sprocket stripper including: a first major surface extending substantially parallel to the shaft (38, 40), and a second surface extending from the first major surface at a non-perpendicular angle relative to the first major surface. a crop processing mechanism; and an elevator assembly for conveying harvested crop to the crop processing mechanism, the elevator assembly including: an elevator housing having an inlet, an endless conveyor mounted for rotation within the elevator housing about a shaft (38, 40), characterised in that a sprocket stripper is mounted adjacent the shaft (38, 40), the sprocket stripper including: a first major surface extending substantially parallel to the shaft (38, 40), and a second surface extending from the first major surface at a non-perpendicular angle relative to the first major surface. an elevator housing having an inlet, an endless conveyor mounted for rotation within the elevator housing about a shaft (38, 40), characterised in that a sprocket stripper is mounted adjacent the shaft (38, 40), the sprocket stripper including: a first major surface extending substantially parallel to the shaft (38, 40), and a second surface extending from the first major surface at a non-perpendicular angle relative to the first major surface. a first major surface extending substantially parallel to the shaft (38, 40), and a second surface extending from the first major surface at a non-perpendicular angle relative to the first major surface.
A vehicle comprising: a frame; a passenger compartment supported by the frame; an engine supported by the frame for generating heat; first and second heat exchangers (14, 16) coated with desiccant, wherein each of the first and second heat exchangers (14, 16) alternates between a cooling mode and a regeneration mode; wherein one of the first and second heat exchangers (14, 16) is in the cooling mode, receives a refrigerant to remove heat from air passing through the heat exchanger and into the passenger compartment of the vehicle, and removes moisture from the air which is adsorbed by the desiccant on the heat exchanger; wherein the other of the first and second heat exchangers (14, 16) is in the regeneration mode and is heated by heat generated by the engine to remove the moisture from the desiccant on the heat exchanger whereby air having passed through the heat exhanger is laden with moisiture and is discharged to the atmosphere outside the vehicle. a frame; a passenger compartment supported by the frame; an engine supported by the frame for generating heat; first and second heat exchangers (14, 16) coated with desiccant, wherein each of the first and second heat exchangers (14, 16) alternates between a cooling mode and a regeneration mode; wherein one of the first and second heat exchangers (14, 16) is in the cooling mode, receives a refrigerant to remove heat from air passing through the heat exchanger and into the passenger compartment of the vehicle, and removes moisture from the air which is adsorbed by the desiccant on the heat exchanger; wherein the other of the first and second heat exchangers (14, 16) is in the regeneration mode and is heated by heat generated by the engine to remove the moisture from the desiccant on the heat exchanger whereby air having passed through the heat exhanger is laden with moisiture and is discharged to the atmosphere outside the vehicle.
Active compound combination comprising: Fluopyram, a spore-forming bacterium of the genera Bacillus, selected from the group consisting of Bacillus firmus strain CNCM 1-1582, and at least one biological control agent selected from the group consisting of bacteria including spore-forming, root-colonizing bacteria, or bacteria useful as biofungicide, bioinsecticide or nematicide selected from the group consisting of (C1.27) Bacillus thuringiensis subsp. tenebrionis strain NB 176 of which products are known as Novodor® FC from BioFa, DE. Fluopyram, a spore-forming bacterium of the genera Bacillus, selected from the group consisting of Bacillus firmus strain CNCM 1-1582, and at least one biological control agent selected from the group consisting of bacteria including spore-forming, root-colonizing bacteria, or bacteria useful as biofungicide, bioinsecticide or nematicide selected from the group consisting of (C1.27) Bacillus thuringiensis subsp. tenebrionis strain NB 176 of which products are known as Novodor® FC from BioFa, DE.
An assembly comprising a thermowell and a stand-alone closed-circuit modular system for pressure compensation of the thermowell, comprising: a gas container, which gas container is filled with a limited amount of a, preferably inert, gas and which container serves as a pressure reservoir for the thermowell., a pressure regulating element, wherein the pressure regulating element is connectable to the thermowell and to the container in a gas tight and pressure tight manner and wherein the pressure regulating element serves for regulating the pressure in the thermowell to a predetermined pressure value. a gas container, which gas container is filled with a limited amount of a, preferably inert, gas and which container serves as a pressure reservoir for the thermowell., a pressure regulating element, wherein the pressure regulating element is connectable to the thermowell and to the container in a gas tight and pressure tight manner and wherein the pressure regulating element serves for regulating the pressure in the thermowell to a predetermined pressure value.
A temperature-controlling microfluidic device (100, 300), comprising: a driver chip (110, 310); a fluid chamber located over the driver chip (110, 310); a first microfluidic loop having a fluid driving end and a fluid outlet end connected to the fluid chamber, wherein the first microfluidic loop includes a portion thereof located outside a boundary of the driver chip (110, 310); a first fluid actuator on the driver chip (110, 310) associated with the fluid driving end of the first microfluidic loop to circulate fluid through the first microfluidic loop; a second microfluidic loop (130") having a fluid driving end and a fluid outlet end connected to the fluid chamber, wherein the second microfluidic loop (130") includes a portion thereof located outside a boundary of the driver chip (110, 310); and a second fluid actuator on the driver chip (110, 310) associated with the fluid driving end of the second microfluidic loop to circulate fluid through the second microfluidic loop. a driver chip (110, 310); a fluid chamber located over the driver chip (110, 310); a first microfluidic loop having a fluid driving end and a fluid outlet end connected to the fluid chamber, wherein the first microfluidic loop includes a portion thereof located outside a boundary of the driver chip (110, 310); a first fluid actuator on the driver chip (110, 310) associated with the fluid driving end of the first microfluidic loop to circulate fluid through the first microfluidic loop; a second microfluidic loop (130") having a fluid driving end and a fluid outlet end connected to the fluid chamber, wherein the second microfluidic loop (130") includes a portion thereof located outside a boundary of the driver chip (110, 310); and a second fluid actuator on the driver chip (110, 310) associated with the fluid driving end of the second microfluidic loop to circulate fluid through the second microfluidic loop.
A resin composition comprising: at least one compound C1 having (i) two terminal alkyne functional groups selected from the group consisting of propargyl, butynyl and pentynyl, and (ii) one functional carbonate group; and at least one compound C2 having at least two thiol functional groups. at least one compound C1 having (i) two terminal alkyne functional groups selected from the group consisting of propargyl, butynyl and pentynyl, and (ii) one functional carbonate group; and (i) two terminal alkyne functional groups selected from the group consisting of propargyl, butynyl and pentynyl, and (ii) one functional carbonate group; and at least one compound C2 having at least two thiol functional groups.
A culture apparatus, comprising: a temperature-controlled room accommodating a plurality of incubation containers incubating samples and maintaining inside thereof in a predetermined environment condition; an imaging section imaging the samples of an incubation container in the temperature-controlled room and generating data of a plurality of observing images; an image analyzing section performing an image analyzing process on the data of the plurality of the observing images obtained by imaging the incubation container at different times and generating image analyzing data including morphological information which indicates incubation states of the samples and rate-of-change information regarding the morphological information based on the observing images; an input section receiving an input of a first searching condition regarding the morphological information and an input of a second searching condition regarding the rate-of-change information; a search processing section conducting a search for an incubation container which meets the first searching condition and the second searching condition from the plurality of incubation containers by using the image analyzing data, the input first searching condition, and the input second searching condition; and a display section displaying the incubation container which meets the first searching condition and the second searching condition. a temperature-controlled room accommodating a plurality of incubation containers incubating samples and maintaining inside thereof in a predetermined environment condition; an imaging section imaging the samples of an incubation container in the temperature-controlled room and generating data of a plurality of observing images; an image analyzing section performing an image analyzing process on the data of the plurality of the observing images obtained by imaging the incubation container at different times and generating image analyzing data including morphological information which indicates incubation states of the samples and rate-of-change information regarding the morphological information based on the observing images; an input section receiving an input of a first searching condition regarding the morphological information and an input of a second searching condition regarding the rate-of-change information; a search processing section conducting a search for an incubation container which meets the first searching condition and the second searching condition from the plurality of incubation containers by using the image analyzing data, the input first searching condition, and the input second searching condition; and a display section displaying the incubation container which meets the first searching condition and the second searching condition.