mhurhangee/ep-ind-claims huggingface dataset:
A quantum computing circuit, comprising: - a first chip, with at least one qubit thereon, and - a second chip, with at least other quantum circuit element than qubit thereon; wherein: - said first chip and said second chip are stacked together in a flip-chip configuration and attached to each other with bump bonding that comprises bonding bumps; characterized in that: - said second chip comprises a quantum circuit refrigerator, and - said quantum computing circuit comprises a controllable connection between said quantum circuit refrigerator and at least one qubit on said first chip for allowing said quantum circuit refrigerator to be controllably used to reset the state of said at least one qubit. - a first chip, with at least one qubit thereon, and - a second chip, with at least other quantum circuit element than qubit thereon; - said first chip and said second chip are stacked together in a flip-chip configuration and attached to each other with bump bonding that comprises bonding bumps; - said second chip comprises a quantum circuit refrigerator, and - said quantum computing circuit comprises a controllable connection between said quantum circuit refrigerator and at least one qubit on said first chip for allowing said quantum circuit refrigerator to be controllably used to reset the state of said at least one qubit.
A method performed by a communication device of a communication system, the method comprising: receiving, from a base station, a Radio Resource Control, RRC, message including a parameter for transmission of uplink data without using resources scheduled by an associated uplink, UL, grant in a downlink control information, DCI; configuring i) a first radio network temporary identifier, RNTI, for the communication device for retransmitting uplink data transmitted without using resources scheduled by an associated UL grant in a DCI; and ii) a second RNTI for the communication device for transmitting or retransmitting uplink data using resources scheduled by an associated UL grant in a DCI; scrambling uplink data using the first RNTI; determining a Hybrid Automatic Repeat Request, HARQ, process identifier for transmitting the uplink data, based on the parameter and a resource in a predetermined radio frame; transmitting, to the base station, by using configured communication resource, the uplink data, while linking a HARQ process corresponding to the HARQ process identifier; retransmitting, to the base station, the uplink data using resources scheduled by an associated UL grant in a DCI corresponding to the first RNTI; and transmitting and retransmitting, to the base station, another uplink data using resources scheduled by an associated UL grant in a DCI corresponding to the second RNTI. receiving, from a base station, a Radio Resource Control, RRC, message including a parameter for transmission of uplink data without using resources scheduled by an associated uplink, UL, grant in a downlink control information, DCI; configuring i) a first radio network temporary identifier, RNTI, for the communication device for retransmitting uplink data transmitted without using resources scheduled by an associated UL grant in a DCI; and ii) a second RNTI for the communication device for transmitting or retransmitting uplink data using resources scheduled by an associated UL grant in a DCI; i) a first radio network temporary identifier, RNTI, for the communication device for retransmitting uplink data transmitted without using resources scheduled by an associated UL grant in a DCI; and ii) a second RNTI for the communication device for transmitting or retransmitting uplink data using resources scheduled by an associated UL grant in a DCI; scrambling uplink data using the first RNTI; determining a Hybrid Automatic Repeat Request, HARQ, process identifier for transmitting the uplink data, based on the parameter and a resource in a predetermined radio frame; transmitting, to the base station, by using configured communication resource, the uplink data, while linking a HARQ process corresponding to the HARQ process identifier; retransmitting, to the base station, the uplink data using resources scheduled by an associated UL grant in a DCI corresponding to the first RNTI; and transmitting and retransmitting, to the base station, another uplink data using resources scheduled by an associated UL grant in a DCI corresponding to the second RNTI.
A process for producing sulfuric acid, oleum or liquid sulfur trioxide, in which a starting gas containing sulfur dioxide at least partly reacts with molecular oxygen in at least one contact (2, 3) with at least one contact stage (6 1) to form sulfur trioxide, and in which the sulfur-trioxide-containing gas produced is introduced into an absorber (4, 5) and converted there to sulfuric acid, characterized in that a contact gas with a sulfur dioxide content of 80 to 99.99 vol-% and having an oxygen content of 0.01 to 10 vol-% and with a volumetric ratio of sulfur dioxide to oxygen of more than 8:1 is supplied to the first contact stage (6 1).
An injection molding apparatus comprising an injection molding machine, a heated manifold, a mold (203, 207) having a cavity, a downstream flow channel receiving a selected injection fluid from the heated manifold, the downstream flow channel routing the received selected injection fluid to a gate that communicates with the cavity of the mold, a valve pin (216, 218, 301, 501, 708, 808, 1222) adapted to be controllably driven upstream and downstream within the downstream flow channel between gate open and gate closed positions, the apparatus includes an actuator (240, 252, 2202) interconnected to the valve pin (216, 218, 301, 501, 708, 808, 1222) via one or more elongated cables (237, 237, 248, 249) having a length and a cable axis wherein the one or more elongated cables are flexibly bendable along at least a portion of their axis into a curved or curvilinear configuration, the actuator (240, 252, 2202) being mounted and the length of the elongated cables (237, 237, 248, 249) being selected such that the actuator (240, 252, 2202) is mountable in a location relative to the manifold wherein the actuator is insulated or isolated from significant or substantial heat conductive communication with the heated manifold, the actuator (240, 252, 2202) and the valve pin (216, 218, 301, 501, 708, 808, 1222) being interconnected via the one or more elongated flexible cables (237, 237, 248, 249) in an arrangement such that the valve pin is controllably drivable by the one or more elongated flexible cables along a linear path of movement between the gate closed and gate open positions.
A system to operate an X-ray detector comprising: a photodiode layer including a plurality of photodiodes (PD1, PD2, PD3,...) and configured to receive X-ray that have passed through a target object and convert the received X-ray to electric signals; and a plurality of pixel driving micro integrated chips ICs each coupled to two or more photodiodes in the photodiode layer, wherein the plurality of pixel driving micro integrated chips is manufactured separately from the photodiode layer and attached on the photodiode layer, characterized in that the pixel driving micro integrated chips each are coupled to two or more photodiodes in the photodiode layer and the plurality of pixel driving micro integrated chips are adapted to sequentially turn on corresponding switches of the coupled photodiodes, sequentially read data accumulated in the coupled photodiodes, and sequentially output read data to a data driver circuit. a photodiode layer including a plurality of photodiodes (PD1, PD2, PD3,...) and configured to receive X-ray that have passed through a target object and convert the received X-ray to electric signals; and a plurality of pixel driving micro integrated chips ICs each coupled to two or more photodiodes in the photodiode layer, wherein the plurality of pixel driving micro integrated chips is manufactured separately from the photodiode layer and attached on the photodiode layer, characterized in that the pixel driving micro integrated chips each are coupled to two or more photodiodes in the photodiode layer and the plurality of pixel driving micro integrated chips are adapted to sequentially turn on corresponding switches of the coupled photodiodes, sequentially read data accumulated in the coupled photodiodes, and sequentially output read data to a data driver circuit.
Use of an adhesive tape for bundling cables in an automobile, the cables being sheathed in the axial direction by the adhesive tape, consisting of a carrier with an upper side and an underside, wherein the carrier has a width B T with respect to the transverse direction, wherein an adhesive strip of a reactive heat-activatable adhesive, which has a width B K of at least 3 mm and at most 50% of the width B T, is provided at at least one longitudinal edge of the carrier, wherein one of the longitudinal edges of the adhesive tape is aligned in the axial direction on the cable harness, the adhesive tape is passed in a circular motion around the cable harness, so that the cable harness is wrapped by the adhesive tape, the other longitudinal edge of the adhesive tape is fixed on the carrier by the adhesive strip of reactive heat-activatable adhesive, so that the adhesive strip is essentially adhesively bonded on the carrier, wherein a reactive heat-activatable adhesive of nitrile rubber and phenolic resin is used as the adhesive strip.
A cysteine engineered anti-CD79B antibody comprising one or more free cysteine amino acids and comprising the following HVR sequences: (i) HVR-L1 comprising sequence A1-A15, wherein A1-A15 is KASQSVDYEGDSFLN (ii) HVR-L2 comprising sequence B1-B7, wherein B1-B7 is AASNLES (iii) HVR-L3 comprising sequence C1-C9, wherein C1-C9 is QQSNEDPLT (iv) HVR-H1 comprising sequence D1-D10, wherein D1-D10 is GYTFSSYWIE (v) HVR-H2 comprising sequence E1-E18, wherein E1-E18 is GEILPGGGDTNYNEIFKG (vi) HVR-H3 comprising sequence F1-F10, wherein F1-F10 is TRRVPIRLDY; wherein the antibody binds to the same epitope as a monoclonal antibody comprising the variable domains of SEQ ID No 10 and SEQ ID No 14, an antibody comprising the variable domains of SEQ ID No 207 and SEQ ID No 208 or an antibody comprising the light chain sequence of SEQ ID No 307 and the heavy chain sequence of SEQ ID No 308; and wherein said one or more free cysteine amino acids are present in one or more regions selected from L10-L20, L105-L115, L109-L119, L116-L126, L122-L132, L163-L173 or L200-L210 of the light chain or H1-H10, H18-H28, H79-H89, H107-H117, H109-H119, H111-H121, H270-H280, H366-H376 or H391-H401 of the heavy chain, wherein said numbering is according to the Kabat numbering system. (i) HVR-L1 comprising sequence A1-A15, wherein A1-A15 is KASQSVDYEGDSFLN (ii) HVR-L2 comprising sequence B1-B7, wherein B1-B7 is AASNLES (iii) HVR-L3 comprising sequence C1-C9, wherein C1-C9 is QQSNEDPLT (iv) HVR-H1 comprising sequence D1-D10, wherein D1-D10 is GYTFSSYWIE (v) HVR-H2 comprising sequence E1-E18, wherein E1-E18 is GEILPGGGDTNYNEIFKG (vi) HVR-H3 comprising sequence F1-F10, wherein F1-F10 is TRRVPIRLDY;
Spraying device for spraying liquids, in particular for agricultural purposes, comprising at least one storage tank for a carrier liquid, in particular water, a plurality of separately controllable spray nozzles for spraying the carrier liquid, and at least one pump device for conveying the carrier liquid from the at least one storage tank to the spray nozzles through at least one liquid line (15, 32), characterized in that the spray nozzles have at least one feed apparatus for mixing at least one active substance from an active substance tank with the carrier liquid, and the active substance can be supplied to the spray nozzles for supplying and mixing with the carrier liquid in pre-diluted form, a circuit being provided for the at least one pre-diluted active substance, and the spray nozzles each having at least one individually controllable valve, the valve being designed as a pulse-width-modulated valve and the mixing taking place directly at or in the spray nozzles.
Process for producing dispersion powders by means of spray-drying of aqueous polymer dispersions and addition of antiblocking agent, characterized in that antiblocking agents present in agglomerated form and having a particle size of 10 μm to 250 μm, or having a particle size of 5 mm to 5 cm in the case of agglomerates in the form of extrudates, are supplied to the spray-drying wholly or partly by means of a conveying gas and are comminuted to a particle size of 0.01 μm to 5 μm or, in the case of extrudates, to a particle size of 2 μm to 60 μm.
A rotating-drum type magnetic separator which includes a rotating drum on which a plurality of magnets are disposed and which separates unnecessary matters in treated coolant liquid, wherein a slit-like opening is provided below the rotating drum, said magnetic separator being characterized by comprising a device for suppressing slit clogging, wherein the device for suppressing slit clogging comprises a slit cleaning member, a portion of which being inserted into the opening, said slit cleaning member being arranged so as to be movable along a longitudinal direction of the opening.
A personal propulsion device, comprising: a body unit, having a centre of gravity, the body unit including a thrust assembly and a throttle control, the thrust assembly having at least two thrust nozzles (44, 46) located above the centre of gravity, said thrust nozzles (44,46) configured to generate nozzle reaction forces for lift and propulsion; a delivery conduit in fluid communication with the thrust nozzles (44, 46); and a base unit in fluid communication with the delivery conduit, wherein the throttle control is in communication with the base unit and operative to regulate the flow of pressurized fluid from the base unit to the thrust nozzles (44, 46); the base unit is capable of delivering pressurized fluid to the delivery conduit; and wherein, during operation, the body unit can achieve flight and the base unit does not achieve flight and remains on land or in water. a body unit, having a centre of gravity, the body unit including a thrust assembly and a throttle control, the thrust assembly having at least two thrust nozzles (44, 46) located above the centre of gravity, said thrust nozzles (44,46) configured to generate nozzle reaction forces for lift and propulsion; a delivery conduit in fluid communication with the thrust nozzles (44, 46); and a base unit in fluid communication with the delivery conduit, wherein the throttle control is in communication with the base unit and operative to regulate the flow of pressurized fluid from the base unit to the thrust nozzles (44, 46); the base unit is capable of delivering pressurized fluid to the delivery conduit; and wherein, during operation, the body unit can achieve flight and the base unit does not achieve flight and remains on land or in water.
A transdermal drug delivery system consisting of, a backing layer; a drug-containing matrix layer; and a release layer, wherein the drug-containing matrix layer comprises (a) donepezil or a pharmaceutically acceptable salt thereof as an active ingredient in an amount ranging from 5 to 40 % by weight, based on the total weight of the drug-containing matrix layer; and (b) an acrylate-rubber hybrid as an adhesive in an amount ranging from 60 to 90 % by weight, based on the total weight of the drug- containing matrix layer, wherein the acrylate-rubber hybrid is an acrylic polymer comprising a C 4 ∼ C 18 alkyl acrylate monomer grafted with a rubber macromer having a glass transition temperature of not more than -30°C. (a) donepezil or a pharmaceutically acceptable salt thereof as an active ingredient in an amount ranging from 5 to 40 % by weight, based on the total weight of the drug-containing matrix layer; and (b) an acrylate-rubber hybrid as an adhesive in an amount ranging from 60 to 90 % by weight, based on the total weight of the drug- containing matrix layer, wherein the acrylate-rubber hybrid is an acrylic polymer comprising a C 4 ∼ C 18 alkyl acrylate monomer grafted with a rubber macromer having a glass transition temperature of not more than -30°C.
A masterbatch facility for making a masterbatch of pellets comprising: a feed and blend system, a pellet mill, a product handling system, and a utilities system; characterized in that, the feed and blend system comprises at least one component feeder, at least one component discharger, a manual feed station, or a combination thereof, and further comprising a mixer; wherein at least one of the component feeders is an assisted component feeder; wherein at least two components are fed via the component feeder, component discharger, manual feed station, or a combination thereof to the mixer; wherein the mixer is a double shaft mixer with shafts rotating in opposite directions; the pellet mill comprises a buffer hopper, a screw feeder, a pellet compactor, and a screener; wherein the pellet compactor comprises a die plate, a roll, and a cutter hub; wherein the buffer hopper is a vibratory buffer hopper; the product handling system comprises a product hopper and a fill station; wherein the product hopper is a vibratory product hopper; and the facility further comprises a utilities system comprising a ventilation system, a central vacuum station, a vacuum hood, or a combination comprising one or more of the foregoing. a feed and blend system, a pellet mill, a product handling system, and a utilities system; characterized in that, the feed and blend system comprises at least one component feeder, at least one component discharger, a manual feed station, or a combination thereof, and further comprising a mixer; wherein at least one of the component feeders is an assisted component feeder; wherein at least two components are fed via the component feeder, component discharger, manual feed station, or a combination thereof to the mixer; wherein the mixer is a double shaft mixer with shafts rotating in opposite directions; the pellet mill comprises a buffer hopper, a screw feeder, a pellet compactor, and a screener; wherein the pellet compactor comprises a die plate, a roll, and a cutter hub; wherein the buffer hopper is a vibratory buffer hopper; the product handling system comprises a product hopper and a fill station; wherein the product hopper is a vibratory product hopper; and the facility further comprises a utilities system comprising a ventilation system, a central vacuum station, a vacuum hood, or a combination comprising one or more of the foregoing.
A corner module apparatus for a vehicle, the corner module apparatus comprising: one or more processors configured to obtain a steering angle, and obtain a lever ratio indicating whether a front wheel and a rear wheel of a bicycle model defined with respect to a vehicle are inphase or reverse-phased and indicating a steering angle ratio; and a controller configured to calculate a front wheel heading angle of the bicycle model from the steering angle, calculate a rear wheel heading angle of the bicycle model based on the calculated front wheel heading angle and the lever ratio, calculate first to fourth target angles of a left front wheel, a right front wheel, a left rear wheel, and a right rear wheel of the vehicle by expanding the bicycle model to a four-wheel vehicle model, and independently control steering of each of the four wheels of the vehicle by using the calculated first to fourth target angles, wherein the calculation of the first to fourth target angles is determined in differentiated ways based on a value of the lever ratio. one or more processors configured to obtain a steering angle, and obtain a lever ratio indicating whether a front wheel and a rear wheel of a bicycle model defined with respect to a vehicle are inphase or reverse-phased and indicating a steering angle ratio; and a controller configured to calculate a front wheel heading angle of the bicycle model from the steering angle, calculate a rear wheel heading angle of the bicycle model based on the calculated front wheel heading angle and the lever ratio, calculate first to fourth target angles of a left front wheel, a right front wheel, a left rear wheel, and a right rear wheel of the vehicle by expanding the bicycle model to a four-wheel vehicle model, and independently control steering of each of the four wheels of the vehicle by using the calculated first to fourth target angles, wherein the calculation of the first to fourth target angles is determined in differentiated ways based on a value of the lever ratio. calculate a front wheel heading angle of the bicycle model from the steering angle, calculate a rear wheel heading angle of the bicycle model based on the calculated front wheel heading angle and the lever ratio, calculate first to fourth target angles of a left front wheel, a right front wheel, a left rear wheel, and a right rear wheel of the vehicle by expanding the bicycle model to a four-wheel vehicle model, and independently control steering of each of the four wheels of the vehicle by using the calculated first to fourth target angles, wherein the calculation of the first to fourth target angles is determined in differentiated ways based on a value of the lever ratio.
A histologic tissue sample support device comprising: a tissue cassette having a recess including at least one side wall and a bottom wall, the tissue cassette formed of material that can be successfully sectioned in a microtome and is resistant to degradation from solvents and chemicals used to fix, process and stain tissue; a frame including a bottom edge, the tissue cassette being movably coupled to the frame; the histologic tissue sample support device further comprising a lid coupled to the frame; wherein the lid and the tissue cassette are capable of moving from a first position to a second position with respect to the frame when the tissue cassette is received within the frame, and in the second position the bottom wall and at least a portion of the side wall extend beyond the bottom edge of the frame for sectioning in the microtome. a tissue cassette having a recess including at least one side wall and a bottom wall, the tissue cassette formed of material that can be successfully sectioned in a microtome and is resistant to degradation from solvents and chemicals used to fix, process and stain tissue; a frame including a bottom edge, the tissue cassette being movably coupled to the frame; the histologic tissue sample support device further comprising a lid coupled to the frame; wherein the lid and the tissue cassette are capable of moving from a first position to a second position with respect to the frame when the tissue cassette is received within the frame, and in the second position the bottom wall and at least a portion of the side wall extend beyond the bottom edge of the frame for sectioning in the microtome.