mhurhangee/ep-ind-claims huggingface dataset:
Apparatus to create an object through excitation, curing or hardening of material, such as a three dimensional printer, comprising: - a substrate of at least a plate defining a reference surface; - a source of excitation, curing and/or hardening focussed above or below the substrate, and - a frame, wherein the substrate is supported on or suspended under the frame, CHARACTERIZED BY a resilient suspension or a resilient support, for example of rubber or the like, arranged between the frame and the substrate. - a substrate of at least a plate defining a reference surface; - a source of excitation, curing and/or hardening focussed above or below the substrate, and - a frame, wherein the substrate is supported on or suspended under the frame,
A coated metal sheet for automobile comprising: a metal sheet; and a coating film (α) present on at least one surface of the metal sheet, wherein the coating film (α) contains an organic resin, electrically conductive pigments, and anti-corrosion pigments, and wherein a Martens micro-hardness HM at -20°C of the surface of the coating film (α) is 10 to 200 (mg/mm 2) at 20 points or more when measured at 100 points, and a Martens micro-hardness HM at 40°C of the surface of the coating film (α) is 200 to 200,000 (mg/mm 2) at 5 points or more when measured at 100 points, wherein a glass transition temperature Tg of the organic resin is -80°C to -20°C, and wherein the organic resin is selected from the group consisting of a polyester resin, a polyurethane resin, an epoxy resin, a polyolefin resin, and a (meth)acrylic resin, and a modified product thereof. a metal sheet; and a coating film (α) present on at least one surface of the metal sheet, wherein the coating film (α) contains an organic resin, electrically conductive pigments, and anti-corrosion pigments, and an organic resin, electrically conductive pigments, and anti-corrosion pigments, and wherein a Martens micro-hardness HM at -20°C of the surface of the coating film (α) is 10 to 200 (mg/mm 2) at 20 points or more when measured at 100 points, and a Martens micro-hardness HM at 40°C of the surface of the coating film (α) is 200 to 200,000 (mg/mm 2) at 5 points or more when measured at 100 points, wherein a glass transition temperature Tg of the organic resin is -80°C to -20°C, and wherein the organic resin is selected from the group consisting of a polyester resin, a polyurethane resin, an epoxy resin, a polyolefin resin, and a (meth)acrylic resin, and a modified product thereof.
A apparatus for communication with a vacuum device, comprising: a first interface element which is configured to communicate with a communication device formed separately from the apparatus; a second interface element which is configured to communicate with the vacuum device; a memory element; and a processor element which is configured to perform the following functions: - providing data from the communication device to the memory element via the first interface element; and - providing data from the memory element to the vacuum device via the second interface element; and/or - providing data from the vacuum device to the memory element via the second interface element; and - providing data from the memory element to the communication device via the first interface element, characterized in that the processor element is further configured to perform the following functions: - creating a file based on the data stored on the memory element; and - providing data based on the file or the file itself to the communication device via the first interface element and/or providing data based on the file or the file itself to the vacuum device via the second interface element. a first interface element which is configured to communicate with a communication device formed separately from the apparatus; a second interface element which is configured to communicate with the vacuum device; a memory element; and a processor element which is configured to perform the following functions: - providing data from the communication device to the memory element via the first interface element; and - providing data from the memory element to the vacuum device via the second interface element; and/or - providing data from the vacuum device to the memory element via the second interface element; and - providing data from the memory element to the communication device via the first interface element, - providing data from the communication device to the memory element via the first interface element; and - providing data from the memory element to the vacuum device via the second interface element; and/or - providing data from the vacuum device to the memory element via the second interface element; and - providing data from the memory element to the communication device via the first interface element, characterized in that the processor element is further configured to perform the following functions: - creating a file based on the data stored on the memory element; and - providing data based on the file or the file itself to the communication device via the first interface element and/or providing data based on the file or the file itself to the vacuum device via the second interface element. - creating a file based on the data stored on the memory element; and - providing data based on the file or the file itself to the communication device via the first interface element and/or providing data based on the file or the file itself to the vacuum device via the second interface element.
A carbon fiber: wherein said carbon fiber includes a large diameter portion and a small diameter portion; wherein a diameter of said large diameter portion is 20 nm to 2 μm; wherein a diameter of said small diameter portion is 10 nm to 1 μm; wherein (the diameter in said large diameter portion) > (the diameter in said small diameter portion); wherein (a maximum value of the diameter in said large diameter portion) / (a minimum value of the diameter in said small diameter portion) is 1.1 to 100; and wherein the length of said carbon fiber is 0.1 to 1000 μm, characterized in that said carbon fiber includes said large diameter portions in plural number and yet said small diameter portions in plural number; wherein the structure of the large diameter portions and small diameter portions are connected on a piece by piece basis.
A confectionery product in form of tablets, comprising at least one active ingredient liable to cause browning of the product, belonging to the class of condensed tannins, proanthocyanidins, procyanidins, catechins, epicatechins, curcuminoids and vanillin, said active ingredients being present in amounts ranging from 0.03% to 5% by weight, and lactic acid in a percentage ranging from 0.2 to 0.3% of the total weight of the product.
A pump control method for the control of the operation of a pump system with at least two pump assemblies which are arranged parallel or in series to one another, with the following steps: determining a specific consumed total power E S of the complete pump system which defines a total power in relation to a hydraulic total load of the complete pump system, determining a specific individual power E P,n of each pump assembly which defines a detected individual power in relation to the individual hydraulic load of the respective pump assembly, characterised by computing an individual load factor E gain,n for each pump assembly according to the equation E gain, n = E S E P, n adapting the individual hydraulic load (Q n; H n) of the pump assemblies in dependence on a desired hydraulic load (Q D; H D) as well as on the individual load factor E gain,n of the respective pump assembly as well as individual regulation of the individual hydraulic load (Q n; H n) for each pump assembly, wherein a pump assembly of the at least two pump assemblies is switched off when the respective individual load factor E gain,n which belongs to this pump assembly lies below a predefined minimum, and a pump assembly of the at least two pump assemblies is switched on when an associated, estimated individual load factor E gain,n which belongs to this pump assembly lies above a predefined maximum. determining a specific consumed total power E S of the complete pump system which defines a total power in relation to a hydraulic total load of the complete pump system, determining a specific individual power E P,n of each pump assembly which defines a detected individual power in relation to the individual hydraulic load of the respective pump assembly, characterised by computing an individual load factor E gain,n for each pump assembly according to the equation E gain, n = E S E P, n adapting the individual hydraulic load (Q n; H n) of the pump assemblies in dependence on a desired hydraulic load (Q D; H D) as well as on the individual load factor E gain,n of the respective pump assembly as well as individual regulation of the individual hydraulic load (Q n; H n) for each pump assembly, wherein a pump assembly of the at least two pump assemblies is switched off when the respective individual load factor E gain,n which belongs to this pump assembly lies below a predefined minimum, and a pump assembly of the at least two pump assemblies is switched on when an associated, estimated individual load factor E gain,n which belongs to this pump assembly lies above a predefined maximum.
An implantable prosthetic device comprising: a) an annular inflatable membrane having an inflation port and first and second open ends (120, 122), wherein upon inflation the annular inflatable membrane forms a ring with an interior cavity; b) a tubular fiber graft enclosing the inflatable membrane and having first and second open ends (164, 166); c) a coupling member coupling the first and second open ends (120, 122; 164, 166) of the inflatable membrane and fiber graft; and d) a one way valve assembly coupled to the inflation port to allow fluid to be injected into the interior of the inflatable membrane. a) an annular inflatable membrane having an inflation port and first and second open ends (120, 122), wherein upon inflation the annular inflatable membrane forms a ring with an interior cavity; b) a tubular fiber graft enclosing the inflatable membrane and having first and second open ends (164, 166); c) a coupling member coupling the first and second open ends (120, 122; 164, 166) of the inflatable membrane and fiber graft; and d) a one way valve assembly coupled to the inflation port to allow fluid to be injected into the interior of the inflatable membrane.
An equipment mounting frame comprising two side support structures of a selected height, each of which side support structures (a) comprises one or more upright members defining a width of that side support structure, and (b) comprises a foot structure extending from at least one end of the upright member(s), the foot structure defining a depth of that side support structure and extending across at least one quarter of the said width, and (c) carries an upright series or row of fixing members, characterised in that the upright members are upright back members, wherein the two side support structures with their respective upright back members being coplanar are connectable together at a distance from each other to enable equipment trays or boxes to be mounted in a superposed array between the side structures by means of said fixing members, and wherein the side support structures each with the foot structure(s) extending in direction of the depth from the upright back member are formed to be nestable together when unconnected to each other for shipment or storage within a volume less than twice the volume defined by the width and depth and height.
An antibody that binds a KIR3DL2 polypeptide and depletes KIR3DL2-expressing tumor cells, for use in the treatment or prevention of a non-cutaneous Peripheral T-cell Lymphoma (PTCL) in an individual, wherein said antibody is used in combination with one or more other therapeutic agent.
A composition comprising: A) an ethylene/α-olefin multi-block copolymer having a melt index from 0.2 g/10 min to 8.0 g/10 min wherein the ethylene/α-olefin multi-block copolymer includes ethylene and one or more addition polymerizable monomers other than ethylene selected from the group consisting of straight-chain or branched α-olefins of 3 to 30 carbon atoms; B) a styrenic block polymer comprising from greater than 1 wt% to less that 50 wt% units of polymerized styrene; C) a tackifier; D) an oil; and the composition has a melt index from 3 g/10 min to 50 g/10 min, as measured in accordance with ASTM D 1238, Condition 190°C/2.16 kg (g/10 minutes). A) an ethylene/α-olefin multi-block copolymer having a melt index from 0.2 g/10 min to 8.0 g/10 min wherein the ethylene/α-olefin multi-block copolymer includes ethylene and one or more addition polymerizable monomers other than ethylene selected from the group consisting of straight-chain or branched α-olefins of 3 to 30 carbon atoms; B) a styrenic block polymer comprising from greater than 1 wt% to less that 50 wt% units of polymerized styrene; C) a tackifier; D) an oil; and
A computer-implemented method of determining a steering angle of an aircraft landing gear, wherein the steering angle is adjusted for turning an aircraft during movement on the ground, the method comprising: obtaining an input image (20, 220) of the aircraft landing gear, wherein the input image is captured by an imaging device positioned on a strut of the aircraft landing gear so as to be directly above a tyre of the aircraft landing gear when the landing gear is extended; comparing the input image against a plurality of reference images, the plurality of reference images comprising images of the aircraft landing gear at known steering angles; determining a most similar reference image, the most similar reference image comprising a reference image of the plurality of reference images most closely matched to the input image; and determining, based at least in part on the most similar reference image, the steering angle of the aircraft landing gear. obtaining an input image (20, 220) of the aircraft landing gear, wherein the input image is captured by an imaging device positioned on a strut of the aircraft landing gear so as to be directly above a tyre of the aircraft landing gear when the landing gear is extended; comparing the input image against a plurality of reference images, the plurality of reference images comprising images of the aircraft landing gear at known steering angles; determining a most similar reference image, the most similar reference image comprising a reference image of the plurality of reference images most closely matched to the input image; and determining, based at least in part on the most similar reference image, the steering angle of the aircraft landing gear.
A temporary medical electrical lead comprising: a connector pin; and a single conductor coil, the coil extending from a proximal portion to a distal portion and having a length, the coil being close-wound along the length thereof, the proximal portion of the coil coupled to the connector pin and a distal portion of the coil extending to a distal-most tip of the lead, the distal portion of the coil defining an inner surface of the lead, the inner surface surrounding an elongate lumen of the lead, the connector pin including an elongate bore that defines a proximal-most portion of the elongate lumen and a proximal opening thereto at a proximal end of the connector pin; wherein no turns of the coil distal portion are mechanically coupled together; and the coil distal portion translates a force of no greater than 0.4 N (0.1 lbf) when strained 400%. a connector pin; and a single conductor coil, the coil extending from a proximal portion to a distal portion and having a length, the coil being close-wound along the length thereof, the proximal portion of the coil coupled to the connector pin and a distal portion of the coil extending to a distal-most tip of the lead, the distal portion of the coil defining an inner surface of the lead, the inner surface surrounding an elongate lumen of the lead, the connector pin including an elongate bore that defines a proximal-most portion of the elongate lumen and a proximal opening thereto at a proximal end of the connector pin; wherein no turns of the coil distal portion are mechanically coupled together; and the coil distal portion translates a force of no greater than 0.4 N (0.1 lbf) when strained 400%.
A mask cushion to sealingly connect a mask to a wearer's face, the cushion comprising: a substantially triangularly-shaped frame of resilient material having a rim to surround the wearer's nose; a membrane also of resilient material, the membrane being relatively more flexible than the frame, and fixed to and extending away from the frame, the membrane having an outer surface, a portion of said outer surface forming a face contacting seal; and a nose-receiving cavity bounded by said frame and said membrane; wherein the membrane is of the same general shape as the rim; and wherein the membrane is spaced away from the rim. a substantially triangularly-shaped frame of resilient material having a rim to surround the wearer's nose; a membrane also of resilient material, the membrane being relatively more flexible than the frame, and fixed to and extending away from the frame, the membrane having an outer surface, a portion of said outer surface forming a face contacting seal; and a nose-receiving cavity bounded by said frame and said membrane; wherein the membrane is of the same general shape as the rim; and wherein the membrane is spaced away from the rim.
A catheter assembly, comprising: an elongate catheter tube defining first, second, and third lumens, wherein: the first and second lumens include a modified reniform cross-sectional shape; the third lumen includes a substantially circular cross sectional shape; and the catheter tube includes: a first lateral opening in fluid communication with the first lumen, the first lateral opening defined by an angled cross cut; and a second lateral opening in fluid communication with the second lumen, the second lateral opening defined by an angled cross cut. the first and second lumens include a modified reniform cross-sectional shape; the third lumen includes a substantially circular cross sectional shape; and the catheter tube includes: a first lateral opening in fluid communication with the first lumen, the first lateral opening defined by an angled cross cut; and a second lateral opening in fluid communication with the second lumen, the second lateral opening defined by an angled cross cut. a first lateral opening in fluid communication with the first lumen, the first lateral opening defined by an angled cross cut; and a second lateral opening in fluid communication with the second lumen, the second lateral opening defined by an angled cross cut.
Underwater pipe for the transport of hydrocarbons comprising a metal reinforcing layer around an inner polymeric sealing sheath capable of being in contact with the hydrocarbons, characterized in that the inner polymeric sealing sheath comprises a homopolymeric polypropylene or a mixture of homopolymeric polypropylenes, wherein the homopolymeric polypropylene or the mixture has: - a density greater than 0.900 g/cm 3, and - a melt index measured at 230°C under a mass of 2.16 kg of less than 10 g/10 minutes. - a density greater than 0.900 g/cm 3, and - a melt index measured at 230°C under a mass of 2.16 kg of less than 10 g/10 minutes.
A method for reducing battery consumption at a user equipment, UE, comprising: configuring a 10 ms transmission mode on an uplink, UL, channel at the UE; indicating configuration of the 10 ms transmission mode to a base station in communication with the UE; compressing a 20 ms transmission associated with a 20 ms transmission time interval, TTI, into a 10 ms compressed transmission; transmitting the 10 ms compressed transmission during a first 10 ms of the 20 ms TTI; performing a discontinuous transmission, DTX, of the UL channel during a second 10 ms of the 20 ms TTI; and performing a decoding of a downlink, DL, dedicated physical channel, DPCH, at an early block error rate, BLER, target slot, wherein the early BLER target slot is the slot at which the decoding success rate has to meet the BLER target, wherein the DL DPCH is not received during the second 10 ms of the 20 ms TTI. configuring a 10 ms transmission mode on an uplink, UL, channel at the UE; indicating configuration of the 10 ms transmission mode to a base station in communication with the UE; compressing a 20 ms transmission associated with a 20 ms transmission time interval, TTI, into a 10 ms compressed transmission; transmitting the 10 ms compressed transmission during a first 10 ms of the 20 ms TTI; performing a discontinuous transmission, DTX, of the UL channel during a second 10 ms of the 20 ms TTI; and performing a decoding of a downlink, DL, dedicated physical channel, DPCH, at an early block error rate, BLER, target slot, wherein the early BLER target slot is the slot at which the decoding success rate has to meet the BLER target, wherein the DL DPCH is not received during the second 10 ms of the 20 ms TTI.
A device, comprising: a radar receiver comprising an analog control loop for cancelling frequency shift and phase shift caused by a strong reflector; the analog control loop comprising: a phase shifter comprising: a signal input configured to receive a local oscillator signal; a control input; and an output; an in phase channel/quadrature phase channel, I/Q, signal generator, comprising: an input coupled to the output of the phase shifter; a first output; and a second output; a first mixer comprising an input coupled to the first output of the I/Q signal generator; a second mixer comprising an input coupled to the second output of the I/Q signal generator; a baseband filter, the input of the baseband filter coupled to an output of the second mixer; an integrator, the output of the baseband filter coupled to an input of the integrator; and a feedback path coupled between an output of the integrator and the control input of the phase shifter; wherein the phase shifter is configured for shifting the phase of the local oscillator signal based on a control signal. a radar receiver comprising an analog control loop for cancelling frequency shift and phase shift caused by a strong reflector; the analog control loop comprising: a phase shifter comprising: a signal input configured to receive a local oscillator signal; a control input; and an output; an in phase channel/quadrature phase channel, I/Q, signal generator, comprising: an input coupled to the output of the phase shifter; a first output; and a second output; a first mixer comprising an input coupled to the first output of the I/Q signal generator; a second mixer comprising an input coupled to the second output of the I/Q signal generator; a baseband filter, the input of the baseband filter coupled to an output of the second mixer; an integrator, the output of the baseband filter coupled to an input of the integrator; and a phase shifter comprising: a signal input configured to receive a local oscillator signal; a control input; and an output; a signal input configured to receive a local oscillator signal; a control input; and an output; an in phase channel/quadrature phase channel, I/Q, signal generator, comprising: an input coupled to the output of the phase shifter; a first output; and a second output; an input coupled to the output of the phase shifter; a first output; and a second output; a first mixer comprising an input coupled to the first output of the I/Q signal generator; a second mixer comprising an input coupled to the second output of the I/Q signal generator; a baseband filter, the input of the baseband filter coupled to an output of the second mixer; an integrator, the output of the baseband filter coupled to an input of the integrator; and a feedback path coupled between an output of the integrator and the control input of the phase shifter; wherein the phase shifter is configured for shifting the phase of the local oscillator signal based on a control signal.