mhurhangee/ep-ind-claims huggingface dataset:
A device suitable for electrochemically processing an object (3, 18), which device comprises at least an electrolyte-containing chamber, a counter electrode (36, 61) disposed in the chamber, means for applying an electrical potential difference between the object (3, 18) to be processed and the counter electrode (36, 61) as well as means for supporting the object (3, 18) to be processed in the chamber at a substantially constant distance from the counter electrode (36, 61), characterised in that the device furthermore comprises at least one holder (15, 55, 56) spaced from the object (3, 18) by a substantially constant distance in use and at least one rod-shaped coelectrode (31, 63) supported by the holder (15, 55, 56), which rod- shaped coelectrode (31, 63) extends towards the object (3, 18) and which in use has a polarity opposite that of the counter electrode (36, 61).
A sintered R-T-B based magnet comprising a main phase crystal grain and a grain boundary phase, the sintered R-T-B based magnet containing: R: not less than 27.5 mass% and not more than 35.0 mass%, wherein R is at least two rare-earth elements which always include Nd and Pr; RH: not less than 0.05 mass% and not more than 0.30 mass%, wherein RH is at least one of the heavy rare-earth elements Dy and Tb; B: not less than 0.80 mass% and not more than 1.05 mass%; Ga: not less than 0.05 mass% and not more than 1.0 mass%; M: not less than 0 mass% and not more than 2 mass%, wherein M is at least one of Cu, Al, Nb and Zr; and a balance T, wherein T is Fe, or Fe and Co, and impurities, wherein, a Pr/Nd which is a ratio of a concentration of Pr to a concentration of Nd in a central portion of a main phase crystal grain that is located at a depth of 300 μm from a magnet surface is lower than 1; and a Pr/Nd which is a ratio of a concentration of Pr to a concentration of Nd in an intergranular grain boundary that is located at a depth of 300 μm from the magnet surface is higher than 1; and a portion in which the Ga concentration gradually decreases from the magnet surface toward a magnet interior exists. R: not less than 27.5 mass% and not more than 35.0 mass%, wherein R is at least two rare-earth elements which always include Nd and Pr; RH: not less than 0.05 mass% and not more than 0.30 mass%, wherein RH is at least one of the heavy rare-earth elements Dy and Tb; B: not less than 0.80 mass% and not more than 1.05 mass%; Ga: not less than 0.05 mass% and not more than 1.0 mass%; M: not less than 0 mass% and not more than 2 mass%, wherein M is at least one of Cu, Al, Nb and Zr; and a balance T, wherein T is Fe, or Fe and Co, and impurities, wherein, a Pr/Nd which is a ratio of a concentration of Pr to a concentration of Nd in a central portion of a main phase crystal grain that is located at a depth of 300 μm from a magnet surface is lower than 1; and a Pr/Nd which is a ratio of a concentration of Pr to a concentration of Nd in an intergranular grain boundary that is located at a depth of 300 μm from the magnet surface is higher than 1; and a portion in which the Ga concentration gradually decreases from the magnet surface toward a magnet interior exists.
A tire pressure detection system that is arranged inside a tire, comprising: an air pressure detection device that detects an air pressure inside the tire; and a secondary battery that supplies power to the air pressure detection device; wherein the secondary battery is a lithium secondary battery that comprises a negative electrode having a lithium alloy layer and a positive electrode, characterized in that a lithium alloy constituting the lithium alloy layer is a lithium-aluminum alloy. an air pressure detection device that detects an air pressure inside the tire; and a secondary battery that supplies power to the air pressure detection device; wherein the secondary battery is a lithium secondary battery that comprises a negative electrode having a lithium alloy layer and a positive electrode, characterized in that a lithium alloy constituting the lithium alloy layer is a lithium-aluminum alloy.
A light conversion system comprising (a) one or more luminescent bodies, (b) a thermally conductive body, (c) a waveguide element, and (d) a light generating device, wherein: - the thermally conductive body comprises a first reflective face, and a first slit in at least part of the first reflective face, wherein the first slit comprises a first slit opening; - the waveguide element comprises a light entrance part and a light exit part, wherein at least part of the light exit part is configured in the first slit; wherein the waveguide element is configured to guide at least part of first light coupled into the waveguide element via the light entrance part to the light exit part; - the one or more luminescent bodies comprise a reflector-directed part and a optical output part; wherein the reflector-directed part is in thermal contact with at least part of the first reflective face and wherein the reflector-directed part encloses at least part of the first slit opening; wherein the one or more luminescent bodies are configured (a) to receive via at least part of the reflector-directed part at least part of the first light escaping from the light exit part of the waveguide element and (b) to convert in a light conversion process at least part of the first light into luminescent material light, wherein at least part of the luminescent material light emanates from the optical output part; and - the light generating device is configured to generate the first light, wherein the light generating device is configured upstream of the light entrance part of the waveguide element; and wherein the light generating device comprises a solid-state light source. - the thermally conductive body comprises a first reflective face, and a first slit in at least part of the first reflective face, wherein the first slit comprises a first slit opening; - the waveguide element comprises a light entrance part and a light exit part, wherein at least part of the light exit part is configured in the first slit; wherein the waveguide element is configured to guide at least part of first light coupled into the waveguide element via the light entrance part to the light exit part; - the one or more luminescent bodies comprise a reflector-directed part and a optical output part; wherein the reflector-directed part is in thermal contact with at least part of the first reflective face and wherein the reflector-directed part encloses at least part of the first slit opening; wherein the one or more luminescent bodies are configured (a) to receive via at least part of the reflector-directed part at least part of the first light escaping from the light exit part of the waveguide element and (b) to convert in a light conversion process at least part of the first light into luminescent material light, wherein at least part of the luminescent material light emanates from the optical output part; and - the light generating device is configured to generate the first light, wherein the light generating device is configured upstream of the light entrance part of the waveguide element; and wherein the light generating device comprises a solid-state light source.
An apparatus, comprising: a detector assembly, comprising an array of multiple magnetic field detectors; a registration array of multiple Magnetic Resonance Imaging reference markers; a positioning unit, which is configured to fix the detector assembly at one or more known positions relative to a location pad which generates magnetic fields for performing position measurements on an intra-body magnetic field detector using a positioning system; interface circuitry, which is configured to output electrical signals that are produced by the magnetic field detectors of the detector assembly when the detector assembly is fixed at the known positions, so as to calibrate the position measurements performed by the positioning system; and the positioning unit is further configured to fix the registration array of the MRI reference markers in at least one known position relative to the location pad. a detector assembly, comprising an array of multiple magnetic field detectors; a registration array of multiple Magnetic Resonance Imaging reference markers; a positioning unit, which is configured to fix the detector assembly at one or more known positions relative to a location pad which generates magnetic fields for performing position measurements on an intra-body magnetic field detector using a positioning system; interface circuitry, which is configured to output electrical signals that are produced by the magnetic field detectors of the detector assembly when the detector assembly is fixed at the known positions, so as to calibrate the position measurements performed by the positioning system; and the positioning unit is further configured to fix the registration array of the MRI reference markers in at least one known position relative to the location pad.
A processing system (16, 60, 710) configured to generate M-mode data by processing a sequence of ultrasound images, the processing system being configured to: obtain the sequence of ultrasound images, each ultrasound image containing a representation of a portion of a fetus, including at least the heart of the fetus; identify, in the sequence of images, a region of interest that contains a representation of the heart of the fetus in each ultrasound image, wherein the step of identifying the region of interest comprises automatically detecting a first region of interest that contains a representation of the fetus in each ultrasound image, and automatically identifying, inside the first region of interest, a second region of interest that contains the representation of the heart of the fetus; position a plurality of M-mode lines (421, 422, 423) with respect to the sequence of ultrasound images, based on the identified region of interest; for each of the plurality of M-mode lines: generate M-mode data for the M-mode line; and determine a quality measure of the M-mode line by processing the generated M-mode data, and rank the plurality of M-mode lines based on the determined quality measure of each M-mode line. obtain the sequence of ultrasound images, each ultrasound image containing a representation of a portion of a fetus, including at least the heart of the fetus; identify, in the sequence of images, a region of interest that contains a representation of the heart of the fetus in each ultrasound image, wherein the step of identifying the region of interest comprises automatically detecting a first region of interest that contains a representation of the fetus in each ultrasound image, and automatically identifying, inside the first region of interest, a second region of interest that contains the representation of the heart of the fetus; position a plurality of M-mode lines (421, 422, 423) with respect to the sequence of ultrasound images, based on the identified region of interest; for each of the plurality of M-mode lines: generate M-mode data for the M-mode line; and determine a quality measure of the M-mode line by processing the generated M-mode data, generate M-mode data for the M-mode line; and determine a quality measure of the M-mode line by processing the generated M-mode data, and rank the plurality of M-mode lines based on the determined quality measure of each M-mode line.
A composite rodent-resistant optical fiber cable operating as a telecommunication infrastructure for use in severe and non-conventional environments such as in sewer systems and pipes, said cable comprising: a polymeric outer tubular element encompassing a rodent-resistant metal strand ring pattern, said metal strand ring pattern comprising a plurality of adjoining circular cross-section strands, wherein said strands are made of highly galvanized steel strands in combination with metal alloy strands; an annular element arranged within and encompassed by said strand ring pattern and being made of a polymer adapted to absorb thermal expansions of said cable and resist against crushing loads applied on said cable by sewage materials, said annular element being defined by an outer circumference, on which a portion of all said strands abuts and an inner circumference spaced from a central reinforcement core; said annular element including a plurality of polymeric circular tubes which are annularly arranged about said central reinforcement core; said central reinforcement core comprises a plurality of circular cross-section steel cables, operating as ballast elements, some of said tubes being empty tubes and others of said tubes being filled-in by microcables or optical fibers. a polymeric outer tubular element encompassing a rodent-resistant metal strand ring pattern, said metal strand ring pattern comprising a plurality of adjoining circular cross-section strands, wherein said strands are made of highly galvanized steel strands in combination with metal alloy strands; an annular element arranged within and encompassed by said strand ring pattern and being made of a polymer adapted to absorb thermal expansions of said cable and resist against crushing loads applied on said cable by sewage materials, said annular element being defined by an outer circumference, on which a portion of all said strands abuts and an inner circumference spaced from a central reinforcement core; said annular element including a plurality of polymeric circular tubes which are annularly arranged about said central reinforcement core; said central reinforcement core comprises a plurality of circular cross-section steel cables, operating as ballast elements, some of said tubes being empty tubes and others of said tubes being filled-in by microcables or optical fibers.
A roof window comprising a frame and a sash, the frame having a top member, a bottom member and two side members (2c,2d) extending between the top and bottom member defining a quadrangular frame having an opening for receiving the sash, the sash having a top member, a bottom member and two side members (3c,3d) extending between the top and bottom member defining a quadrangular sash frame having an opening for receiving a pane of glass, the roof window further comprising an elongate sash cover member having two longitudinal edge portions and two lateral edge portions, the elongate sash cover member being adaptable to cover at least part of the exterior surface of a side member of the sash and/or frame (2c,2d,3c,3d), the sash comprising a cover member retaining means having means (31,32,33,34,35) for releasably locating and retaining at least part of one lateral edge portion of the elongate sash cover member, the cover member retaining means being disposed proximal the sash at a location where an upper lateral edge portion of the elongate sash cover member is located in a mounted position, at least part of the other end of the elongate sash cover member being releasably fixed relative to the sash at the other end thereof characterised in that the elongate sash cover member has at least part of the upper lateral edge portion slidably inserted into the means (31,32,33,34,35) for releasably locating and retaining that part of the upper lateral edge portion.
A method for wireless communication, comprising: receiving a request from a first network entity to establish a policy control and charging, denoted PCC, session for a user equipment, denoted UE, accessing the first network entity using a mobility protocol; determining the mobility protocol used by the UE based on the request, wherein determining the mobility protocol used by the UE comprises obtaining an IP Connectivity Access Network, IP-CAN, Type parameter from the request, and determining the mobility protocol used by the UE based on said IP-CAN Type parameter; determining PCC rules for the PCC session based on the mobility protocol; and sending the PCC rules to the first network entity. receiving a request from a first network entity to establish a policy control and charging, denoted PCC, session for a user equipment, denoted UE, accessing the first network entity using a mobility protocol; determining the mobility protocol used by the UE based on the request, wherein determining the mobility protocol used by the UE comprises obtaining an IP Connectivity Access Network, IP-CAN, Type parameter from the request, and determining the mobility protocol used by the UE based on said IP-CAN Type parameter; determining PCC rules for the PCC session based on the mobility protocol; and sending the PCC rules to the first network entity.
A heat flow rate measurement method for use with a differential scanning calorimeter sensor, the method comprising: calculating a heat exchange between a plurality of sample containers and a reference container placed on a plurality of sample calorimeter units (2, 3, 4) and a reference calorimeter unit, respectively; and determining a heat flow rate of samples within the sample containers using the calculated heat exchange between the plurality of sample containers and the reference container, the determination being made according to: q ̇ PA = T PB − T PA / R AB + T PC − T PA / R AC +... + T P n − T PA / R A n + T PR − T PA / R AR; q ̇ P B = T P A − T P B / R AB + T PC − T P B / R B C +... + T P n − T P B / R Bn + T PR − T P B / R B R; q ̇ P C = T P A − T P C / R AC + T P B − T P C / R BC +... + T P n − T P C / R Cn + T PR − T P C / R C R; and q ̇ P n = T P A − T P n / R An + T P B − T P n / R Bn +... T Pn − 1 − T Pn / R n − 1 n + T PR − T P n / R n R, wherein T PA is a temperature of a first sample container, T PB is a temperature of a second sample container, R AB is a thermal resistance between the first sample container and the second sample container, T PC is a temperature of a third sample container, R AC is a thermal resistance between the first sample container and the third sample container, R BC is a thermal resistance between the second sample container and the third sample container, T P n is a temperature of a nth sample container, R A n is a thermal resistance between the first sample container and the nth sample container, R B n is a thermal resistance between the second sample container and the nth sample container, R C n is a thermal resistance between the third sample container and the nth sample container, T PR is a temperature of the reference container, R AR is a thermal resistance between the first sample container and the reference container, R B R is a thermal resistance between the second sample container and the reference container, R CR is a thermal resistance between the third sample container and the reference container, and q̇ PA, q̇ PB, q̇ PC and q̇ P n are the heat flow rates between the sample and reference containers for the first, second, third and nth sample containers, respectively.
A host, wherein the host comprises a virtual machine monitor, VMM, and at least one network interface card, a first virtual machine runs on the host, the VMM comprises multiple VLAN subinterfaces and a virtual network function module, and the at least one network interface card comprises switching equipment and at least three network ports, wherein a first network port and a second network port support a network interface card virtualization capability, the first network port is corresponding to at least one physical function, PF, and multiple virtual functions, VFs, virtual local area network, VLAN, identifiers are configured for the multiple VFs and the VLAN identifiers of the VFs are different from each other, the first virtual machine is connected to at least one VF of the first network port, a quantity of VLAN subinterfaces is the same as a quantity of VFs of the first network port and the VLAN subinterfaces are in a one-to-one correspondence with the VFs of the first network port, the VLAN subinterfaces have same VLAN identifiers as the VFs corresponding to the VLAN subinterfaces, and the first network port and the second network port are connected by using a network cable; the first virtual machine is configured to send a data packet to a second virtual machine by using the VF that is connected to the first virtual machine, wherein the data packet carries a VLAN identifier of the VF that sends the data packet, and an address of the second virtual machine; switching equipment of the first network port is configured to receive the data packet, and forcibly forward the data packet to the second network port by using the network cable; switching equipment of the second network port is configured to receive the data packet from the first network port, and send, according to the VLAN identifier carried in the data packet, the data packet to a VLAN subinterface identified by the VLAN identifier; the VLAN subinterface is configured to receive the data packet, remove the VLAN identifier in the data packet, and send the data packet to the virtual network function module; and the virtual network function module is configured to perform network function processing on the changed data packet, and send the processed data packet, wherein a destination address of the processed data packet is the address of the second virtual machine.
An air conditioner comprising: a first outdoor unit including an engine operated by combustion of a gas fuel and a compressor connected to the engine by a belt for compressing refrigerant; a second outdoor unit including an outdoor heat exchanger that is placed apart from the first outdoor unit and configured to transfer heat between outside air and refrigerant discharged from the compressor, a water pump configured to supply water to the engine, and a heat radiator configured to transfer heat between the water and outside air, wherein the second outdoor unit is placed apart from the first outdoor unit; a first refrigerant tube that is exposed on the outside of the first outdoor unit and the second outdoor unit, and connected to the compressor; and a water tube that is exposed on the outside of the first outdoor unit and second outdoor unit, and connects the engine and the water pump, wherein the second outdoor unit further comprises: a plate-type heat exchanger configured to transfer heat between the water and the refrigerant; a first valve configured to send the water discharged from the engine selectively to the plate-type heat exchanger or the heat radiator; and a second valve configured to send the water discharged from the engine selectively to the first valve or the water pump. a first outdoor unit including an engine operated by combustion of a gas fuel and a compressor connected to the engine by a belt for compressing refrigerant; a second outdoor unit including an outdoor heat exchanger that is placed apart from the first outdoor unit and configured to transfer heat between outside air and refrigerant discharged from the compressor, a water pump configured to supply water to the engine, and a heat radiator configured to transfer heat between the water and outside air, wherein the second outdoor unit is placed apart from the first outdoor unit; a first refrigerant tube that is exposed on the outside of the first outdoor unit and the second outdoor unit, and connected to the compressor; and a water tube that is exposed on the outside of the first outdoor unit and second outdoor unit, and connects the engine and the water pump, wherein the second outdoor unit further comprises: a plate-type heat exchanger configured to transfer heat between the water and the refrigerant; a first valve configured to send the water discharged from the engine selectively to the plate-type heat exchanger or the heat radiator; and a second valve configured to send the water discharged from the engine selectively to the first valve or the water pump. a plate-type heat exchanger configured to transfer heat between the water and the refrigerant; a first valve configured to send the water discharged from the engine selectively to the plate-type heat exchanger or the heat radiator; and a second valve configured to send the water discharged from the engine selectively to the first valve or the water pump.