mhurhangee/ep-ind-claims huggingface dataset:
A spectrometer comprising: a light detection element provided with a light passing part, and a first light detection part, the light detection element including a substrate, wherein the light passing part is formed in the substrate, the first light detection part including a plurality of photodiodes; a support fixed to the light detection element such that a space is formed. a first optical part provided in the support and configured to reflect light passing through the light passing part in the space; a second optical part provided in the light detection element and configured to reflect the light reflected by the first optical part in the space; and a third optical part provided in the support and configured to reflect the light reflected by the second optical part to the first light detection part in the space, the second optical part or the third optical part disperses and reflects entered light in the space, characterized in that: the light detection element is further provided with a plurality of second light detection parts, which are disposed so as to surround the second optical part to allow to monitor a shift direction of light entering the second optical part, each of the second light detection parts being a photodiode put in the substrate. a light detection element provided with a light passing part, and a first light detection part, the light detection element including a substrate, wherein the light passing part is formed in the substrate, the first light detection part including a plurality of photodiodes; a support fixed to the light detection element such that a space is formed. a first optical part provided in the support and configured to reflect light passing through the light passing part in the space; a second optical part provided in the light detection element and configured to reflect the light reflected by the first optical part in the space; and a third optical part provided in the support and configured to reflect the light reflected by the second optical part to the first light detection part in the space, the second optical part or the third optical part disperses and reflects entered light in the space, characterized in that: the light detection element is further provided with a plurality of second light detection parts, which are disposed so as to surround the second optical part to allow to monitor a shift direction of light entering the second optical part, each of the second light detection parts being a photodiode put in the substrate.
A method of producing a nitride fluorescent material, comprising: preparing a calcined product having a composition that contains at least one first element selected from the group consisting of Ba, Sr, Ca and Mg, at least one second element selected from the group consisting of Eu, Ce, Tb and Mn, and Si and N, and bringing the calcined product into contact with a fluorine-containing substance at a temperature in a range of -20°C or higher and lower than 150°C. preparing a calcined product having a composition that contains at least one first element selected from the group consisting of Ba, Sr, Ca and Mg, at least one second element selected from the group consisting of Eu, Ce, Tb and Mn, and Si and N, and bringing the calcined product into contact with a fluorine-containing substance at a temperature in a range of -20°C or higher and lower than 150°C.
A floor tool for a vacuum cleaner, the floor tool comprising: a cleaner head having an inlet through which dirt-laden fluid is drawn into the cleaner head, and an outlet through which the fluid is discharged; and a duct assembly for carrying the fluid from the outlet to a wand connectable to the duct assembly, wherein the duct assembly comprises a front conduit and a rear conduit, the front conduit is connected to the cleaner head for rotation about a first axis (A-A), the rear conduit is connectable to the wand, the rear conduit is rotatable relative to the front conduit about a second axis (B-B) perpendicular to the first axis (A-A), and rotation of the rear conduit causes the rear conduit to move within or about the front conduit, characterised in that, when the floor tool is resting on the floor and the rear conduit extends upwardly, the front and rear conduits arc around and over the second axis (B-B). a cleaner head having an inlet through which dirt-laden fluid is drawn into the cleaner head, and an outlet through which the fluid is discharged; and a duct assembly for carrying the fluid from the outlet to a wand connectable to the duct assembly, wherein the duct assembly comprises a front conduit and a rear conduit, the front conduit is connected to the cleaner head for rotation about a first axis (A-A), the rear conduit is connectable to the wand, the rear conduit is rotatable relative to the front conduit about a second axis (B-B) perpendicular to the first axis (A-A), and rotation of the rear conduit causes the rear conduit to move within or about the front conduit, characterised in that, when the floor tool is resting on the floor and the rear conduit extends upwardly, the front and rear conduits arc around and over the second axis (B-B).
An arrangement for providing mobile stations in a mobile vehicle with radio coverage, which mobile vehicle is mobile within and/or outside a cellular communication system comprising a radio network comprising a number of fixed base stations and a number of switching arrangements, the arrangement comprising a mobile base station arranged within the mobile vehicle which is adapted to serve at least one mobile cell (2 m), the mobile base station including first communication means comprising internal antenna means arranged within the mobile vehicle for radio communication with mobile stations in the mobile vehicle and second communication means for providing communication between the mobile vehicle and a core network or a fixed part of the network, characterized in that when the mobile base station serving the mobile cell(s) (2 m) is within coverage of a fixed cell (1 1;1 2) controlled by a fixed base station and stationary, or intending to become stationary therein, at least for a given time period, a neighbouring relationship is established between the mobile cell(s) (2 m) served by the mobile base station and said fixed cell (1 1;1 2) according to which handovers of mobile stations are allowed between said mobile cell(s) (2 m) and the fixed cell (1 1;1 2), and the mobile base station provides a broadcast information message indicating said fixed cell (1 1;1 2) as the only neighbour, and in that, when the mobile base station does not intend to become stationary within a fixed cell (1 1;1 2) or the mobile base station is not within coverage of any fixed cell (1 1;1 2) able to establish a neighbouring relationship between the mobile cell(s) (2 m) and the fixed cell (1 1;1 2), handovers of mobile stations between the mobile cell(s)(2 m) and the fixed cell (1 1;1 2) are not allowed.
A polypeptide comprising a SIRP-gamma polypeptide comprising the sequence EEELQX 1 IQPEKLLLVTVGKTATLHCTX 2 TSX 3 X 4 PX 5 GPX 6 X 7 WFRGX 8 GPGRX 9 LIYNX 1 0 X 11 X 12 GX 13 FPRVTTVSDX 14 X 15 KRNNMDFSIRISSITPADVGTYYCX 16 KFRKGX 17 PEX 18 VEFK SGPGTEMALGAKPS (SEQ ID NO: 2), wherein X 1 is M, I, L or F; X 2 is F, I, or L; X 3 is L, I, V, H, N or D; X 4 is F, I, L or V; X 5 is V, I, L, P, T or A; X 6 is V or I; X 7 is L or Q; X 8 is V or A; X 9 is E or V; X 10 is Q, P, L, V, A or E; X 11 is K or R; X 12 is E, D, K, N, Q or H; X 13 is H, P or R; X 14 is L, I, V, P, T, A, R, S or G; X 15 is T, I, N, F, S, Y, V, A or D; X 16 is V or I; X 17 is S, R, N, K, T, I or M; and X 18 is N, K, D, E, H or Q.
A video decoding device comprising: de-multiplexing means (21, 201) for de-multiplexing a bitstream including at least pixel bit length information of entropy-encoded image and pixel bit length information of non-compression-encoded image; entropy decoding means (24, 204) for entropy-decoding transformed data of an image included in the bitstream; inverse transform means (26, 206) for inverse-transforming the entropy-decoded transformed data of the image; non-compression decoding means (23, 203, 205) for non-compression-decoding non-compression-encoded data of an image included in the bitstream; and decoding control means (22, 202) for controlling the entropy decoding means and the non-compression decoding means, wherein the non-compression decoding means increases a pixel bit length of an image decoded by the non-compression decoding means by a bit length of difference between a pixel bit length of entropy-encoded image and a pixel bit length of non-compression-encoded image. de-multiplexing means (21, 201) for de-multiplexing a bitstream including at least pixel bit length information of entropy-encoded image and pixel bit length information of non-compression-encoded image; entropy decoding means (24, 204) for entropy-decoding transformed data of an image included in the bitstream; inverse transform means (26, 206) for inverse-transforming the entropy-decoded transformed data of the image; non-compression decoding means (23, 203, 205) for non-compression-decoding non-compression-encoded data of an image included in the bitstream; and decoding control means (22, 202) for controlling the entropy decoding means and the non-compression decoding means, wherein the non-compression decoding means increases a pixel bit length of an image decoded by the non-compression decoding means by a bit length of difference between a pixel bit length of entropy-encoded image and a pixel bit length of non-compression-encoded image.
Roof module for a motor vehicle, with a frame composed of respective longitudinal frame elements (16, 18) and transverse frame elements (20, 22), which determine the size of the frame and form the connection of the roof module to corresponding motor vehicle body frame-side roof frame elements (32, 48), and with at least one movable cover element (42, 50), which is guided by means of at least one guide rail and accommodated by the frame, characterised in that at least one of the frame elements (16, 18, 20, 22) is divided into a construction variant-spanning functional part (38, 52) having a uniform profile cross-section across several construction variants of the roof module and the guide rail for the cover element (42, 50) and a construction variant-spanning frame part, wherein the functional part (38, 52) and the frame part are formed separately and joined to one another by means of mechanical connecting elements.
Method for producing an insulating system having improved partial discharge resistance, comprising the following method steps: - providing an insulating tape which comprises a mica paper and a carrier material, which are bonded to one another by means of an adhesive, - enwinding an electrical conductor with the insulating tape, and - impregnating the insulating tape wound around the conductor with synthetic resin which comprises a nanoparticulate filler, characterized in that the nanoparticulate filler is present in bimodal form, as a combination of two fractions, wherein the two fractions of the nanoparticulate filler differ in their average particle size and the second fraction is smaller than the first, wherein - the first fraction has an average particle size in the range from 10 to 50 nm. - the smaller fraction has an average particle diameter of 1 to 7 nm - the material of at least one fraction of the nanoparticulate filler is selected from the group of metal oxides, metal nitrides, metal sulfides and/or metal carbides and - the nanoparticulate filler is present in the synthetic resin in a concentration of between 3 and 80 wt%. - providing an insulating tape which comprises a mica paper and a carrier material, which are bonded to one another by means of an adhesive, - enwinding an electrical conductor with the insulating tape, and - impregnating the insulating tape wound around the conductor with synthetic resin which comprises a nanoparticulate filler, - the first fraction has an average particle size in the range from 10 to 50 nm. - the smaller fraction has an average particle diameter of 1 to 7 nm - the material of at least one fraction of the nanoparticulate filler is selected from the group of metal oxides, metal nitrides, metal sulfides and/or metal carbides and - the nanoparticulate filler is present in the synthetic resin in a concentration of between 3 and 80 wt%.
A fluid collection canister comprising: a chamber to collect fluids: a canister top disposed over the chamber, the canister top including a bottom side facing into the chamber, the bottom side including first and second ribs disposed thereon; a filter membrane attached to the first and second ribs, a first port located on the canister top to communicate with the chamber and a pressure source external to the chamber, a second port located on the canister top to communicate with the chamber and a sensor external to the chamber, and characterised wherein the first port is in fluid communication with a first area, the first area bounded by the filter membrane, the first and second ribs and the bottom side of the canister top, and wherein the second port is in fluid communication with a second area, the second area bounded by the filter membrane, the second rib and the bottom side of the canister top. a chamber to collect fluids: a canister top disposed over the chamber, the canister top including a bottom side facing into the chamber, the bottom side including first and second ribs disposed thereon; a filter membrane attached to the first and second ribs, a first port located on the canister top to communicate with the chamber and a pressure source external to the chamber, a second port located on the canister top to communicate with the chamber and a sensor external to the chamber, and characterised wherein the first port is in fluid communication with a first area, the first area bounded by the filter membrane, the first and second ribs and the bottom side of the canister top, and wherein the second port is in fluid communication with a second area, the second area bounded by the filter membrane, the second rib and the bottom side of the canister top. a canister top disposed over the chamber, the canister top including a bottom side facing into the chamber, the bottom side including first and second ribs disposed thereon; a filter membrane attached to the first and second ribs, a first port located on the canister top to communicate with the chamber and a pressure source external to the chamber, a second port located on the canister top to communicate with the chamber and a sensor external to the chamber, and characterised wherein the first port is in fluid communication with a first area, the first area bounded by the filter membrane, the first and second ribs and the bottom side of the canister top, and wherein the second port is in fluid communication with a second area, the second area bounded by the filter membrane, the second rib and the bottom side of the canister top.
A method for receiving a physical downlink channel, PDCH, the method comprising: receiving, by a user equipment, UE, from a first cell, information identifying a first plurality of resource elements that are transmitted with zero power in a resource block including the PDCH wherein the first plurality of resource elements occupy a subset of resource elements used for transmission of a first demodulation reference signal, DMRS, associated with a second cell; receiving, by the UE, a second DMRS in a second plurality of resource elements on a first DMRS port associated with the first cell; and receiving, by the UE, the PDCH that is transmitted on the first DMRS port. receiving, by a user equipment, UE, from a first cell, information identifying a first plurality of resource elements that are transmitted with zero power in a resource block including the PDCH wherein the first plurality of resource elements occupy a subset of resource elements used for transmission of a first demodulation reference signal, DMRS, associated with a second cell; receiving, by the UE, a second DMRS in a second plurality of resource elements on a first DMRS port associated with the first cell; and receiving, by the UE, the PDCH that is transmitted on the first DMRS port.
A filter material for vehicle fuel comprising a spun lace nonwoven fabric which contains a thermoplastic synthetic filament nonwoven fabric as the intermediate layer, characterized in that the thermoplastic synthetic fiber nonwoven fabric as the intermediate layer is a spunbond nonwoven fabric having a fiber diameter of 5 to 30 μm and a basis weight of 20 to 160 g/m 2, and the layer on one side of the spunbond nonwoven fabric is composed of staple fibers with a fiber diameter of 2 to 15 and a basis weight of 30 to 100 g/m 2, while the layer on the other side is composed of staple fibers with a fiber diameter of 7 to 25 μm and a basis weight of 50 to 200 g/m 2.
A method for transmitting an aperiodic sounding reference signal, SRS, at a user equipment in a time division duplex, TDD, communication system, the method comprising: receiving a downlink control information, DCI, format for downlink transmission in multiple input multiple output, MIMO system from a base station, wherein the DCI format includes a request of the aperiodic SRS; and transmitting the aperiodic SRS to the base station according to the request. receiving a downlink control information, DCI, format for downlink transmission in multiple input multiple output, MIMO system from a base station, wherein the DCI format includes a request of the aperiodic SRS; and transmitting the aperiodic SRS to the base station according to the request.
A chisel electrode for an electrosurgical instrument, the electrode having a longitudinal axis and comprising a body portion at a first angle with respect to the longitudinal axis, and a hook portion extending from the body portion at a second angle to the longitudinal axis, the second angle being non-zero, characterised in that the electrode includes a plurality of apertures (35, 36, 37, 38) providing a suction lumen through the electrode, there being at least one aperture in the body portion, and at least one aperture in the hook portion, wherein the body portion is circular in cross-section and tapered such that it forms part of a cone.
A connection system with a cryogenic tank, the tank wall of which is formed with a first material, and with a connecting piece for a component to be connected to the tank, wherein the connecting piece is formed with a second material and the connecting piece is positioned on an exterior side of the tank and substantially congruently with a through opening of the tank wall, and wherein at least one sealing element is provided, and the first and the second materials (106, 120) have different thermal expansion coefficients (α 1,2), characterized in that a counterpart formed with the second material is positioned on an interior side of the tank, the counterpart being connectable to the connecting piece with the aid of at least two fastening elements (146, 148) in a manner such that the tank wall is clamped between the counterpart, the connecting piece and the at least one sealing element, and in order to compensate for thermally induced mechanical stresses, there remains a slight displaceability of the connecting piece and of the counterpart parallel to the tank wall.
A tank for cold or cryogenic liquids, with • a tank double shell of light metal, which limits an inner tank space (1.7) by a tank bottom wall (1.1), tank sidewalls (1.2 to 1.5) and a tank ceiling wall (1.6), • wherein the tank double shell comprises an inner barrier, an outer barrier arranged in a distance from the inner barrier, and structures which connect the inner barrier to the outer barrier, • at least one distributor pipe arranged in the interspace between the inner barrier and the outer barrier, for distributing inert gas in the interspace, • at least one feed-in pipe (6, 7) for inert gas, arranged outside of the tank double shell, which is communicatively connected to the distributor pipe across the outer barrier, • a source for an inert gas, connected to the feed-in pipe (6, 7) outside of the tank shell, • an outlet for gas from the interspace in the outer barrier of the tank ceiling wall (1.6), and • means for gas detection in the area of the gas outlet, characterised in that • the at least one distributor pipe is arranged in the interspace between the inner barrier and the outer barrier of the tank bottom wall (1.1) and comprises gas through-flow holes for distributing inert gas in the interspace. • a tank double shell of light metal, which limits an inner tank space (1.7) by a tank bottom wall (1.1), tank sidewalls (1.2 to 1.5) and a tank ceiling wall (1.6), • wherein the tank double shell comprises an inner barrier, an outer barrier arranged in a distance from the inner barrier, and structures which connect the inner barrier to the outer barrier, • at least one distributor pipe arranged in the interspace between the inner barrier and the outer barrier, for distributing inert gas in the interspace, • at least one feed-in pipe (6, 7) for inert gas, arranged outside of the tank double shell, which is communicatively connected to the distributor pipe across the outer barrier, • a source for an inert gas, connected to the feed-in pipe (6, 7) outside of the tank shell, • an outlet for gas from the interspace in the outer barrier of the tank ceiling wall (1.6), and • means for gas detection in the area of the gas outlet, characterised in that • the at least one distributor pipe is arranged in the interspace between the inner barrier and the outer barrier of the tank bottom wall (1.1) and comprises gas through-flow holes for distributing inert gas in the interspace.