mhurhangee/ep-ind-claims huggingface dataset:
A method of calculating a transmit diversity parameter by a mobile communication device having first and second antennas, comprising: transmitting a first signal concurrently on first and second antennas of the mobile communication device, wherein transmissions of said first signal from said first and second antennas differ by a first value of a transmit diversity parameter; using an antenna selection feedback protocol to indicate that said first signal is transmitted on a first antenna; transmitting a second signal concurrently on said first and second antennas of the mobile communication device, wherein transmissions of said second signal from said first and second antennas differ by a second value of said transmit diversity parameter; using the antenna selection feedback protocol to indicate that said second signal is transmitted on a second antenna; receiving at the mobile communication device an antenna selection feedback signal according to the antenna selection feedback protocol from a second communication device indicating a preference between said first signal and said second signal; and calculating by the mobile communication device a value of the transmit diversity parameter based on said received antenna selection feedback signal. transmitting a first signal concurrently on first and second antennas of the mobile communication device, wherein transmissions of said first signal from said first and second antennas differ by a first value of a transmit diversity parameter; using an antenna selection feedback protocol to indicate that said first signal is transmitted on a first antenna; transmitting a second signal concurrently on said first and second antennas of the mobile communication device, wherein transmissions of said second signal from said first and second antennas differ by a second value of said transmit diversity parameter; using the antenna selection feedback protocol to indicate that said second signal is transmitted on a second antenna; receiving at the mobile communication device an antenna selection feedback signal according to the antenna selection feedback protocol from a second communication device indicating a preference between said first signal and said second signal; and calculating by the mobile communication device a value of the transmit diversity parameter based on said received antenna selection feedback signal.
A growth hormone conjugate having the formula: A-W-B-GH wherein GH represents a growth hormone compound having a single Cys mutation selected from the group of mutations corresponding to; T3C, P5C, S7C, D11C, H18C, Q29C, E30C, E33C, A34C, Y35C, K38C, E39C, Y42C, S43C, D47C, P48C, S55C, S57C, P59C, S62, E65C, Q69C, E88C, Q91C, S95C, A98C, N99C, S100C, L101C, V102C, Y103C, D107C, S108C, D112C, Q122C, G126C, E129C, D130C, G131C, P133C, T135C, G136C, T142C, D147C, N149C, D154C, A155C, L156C, R178C, E186C, G187C and G190C of hGH (SEQ ID NO: 1) B represents a hydrophilic spacer W is a chemical group linking A and B, and A represent an albumin binding residue selected from wherein * denotes the attachment to B through W wherein the albumin binding residue via a hydrophilic spacer is linked to GH via the sulphur residue of the single Cys mutation, or a pharmaceutically acceptable salt thereof. GH represents a growth hormone compound having a single Cys mutation selected from the group of mutations corresponding to; T3C, P5C, S7C, D11C, H18C, Q29C, E30C, E33C, A34C, Y35C, K38C, E39C, Y42C, S43C, D47C, P48C, S55C, S57C, P59C, S62, E65C, Q69C, E88C, Q91C, S95C, A98C, N99C, S100C, L101C, V102C, Y103C, D107C, S108C, D112C, Q122C, G126C, E129C, D130C, G131C, P133C, T135C, G136C, T142C, D147C, N149C, D154C, A155C, L156C, R178C, E186C, G187C and G190C of hGH (SEQ ID NO: 1) B represents a hydrophilic spacer W is a chemical group linking A and B, and A represent an albumin binding residue selected from wherein * denotes the attachment to B through W
A method of coding a video signal, the method comprising: storing a plurality of constant values, wherein each of the constant values is associated with one of a plurality of different transform sizes associated with video coding, wherein the plurality of different transform sizes comprise square transform sizes and rectangular transform sizes; wherein, prior to storing the plurality of constant values in the video coding device, each of the constant values associated with one of the plurality of different transform sizes is pre-calculated based on an input bit-depth value of the video signal, a transform bit-depth value associated with the transform size, and a transform bit-precision value associated with the transform size; selecting one of the constant values based on the size of the fixed-point transform (52, 60, 78) in a video coding device (20, 30), wherein the transform comprises a forward discrete cosine transform, wavelet transform, or conceptually similar linear transform; and applying, in the video coding device, a variable localized bit-depth increase at the fixed-point transform with a value equal to the constant value by left-shifting a transform input signal by a number of bits equal to the constant value before the fixed-point transform, and right-shifting a transform output signal by a number of bits equal to the constant value after the fixed-point transform. storing a plurality of constant values, wherein each of the constant values is associated with one of a plurality of different transform sizes associated with video coding, wherein the plurality of different transform sizes comprise square transform sizes and rectangular transform sizes; wherein, prior to storing the plurality of constant values in the video coding device, each of the constant values associated with one of the plurality of different transform sizes is pre-calculated based on an input bit-depth value of the video signal, a transform bit-depth value associated with the transform size, and a transform bit-precision value associated with the transform size; selecting one of the constant values based on the size of the fixed-point transform (52, 60, 78) in a video coding device (20, 30), wherein the transform comprises a forward discrete cosine transform, wavelet transform, or conceptually similar linear transform; and applying, in the video coding device, a variable localized bit-depth increase at the fixed-point transform with a value equal to the constant value by left-shifting a transform input signal by a number of bits equal to the constant value before the fixed-point transform, and right-shifting a transform output signal by a number of bits equal to the constant value after the fixed-point transform.
An electric heating device, in particular for a motor vehicle, with at least one heating element and with at least one control device with a housing, with at least one circuit board, with a first circuit board section and a second circuit board section, and with at least one first plug device and with at least one second plug device, wherein the two plug devices (7, 8) serve to connect the at least one heating element to the control device, wherein the at least one first plug device is connected to the second circuit board section and the at least one second plug device is connected to the heating element, characterised in that the housing only partially receives the at least one circuit board, wherein the first circuit board section is arranged inside the housing and the second circuit board section protrudes from the housing.
A method, comprising: cooperating, by a network element for a second radio access technology system, with a first radio access technology system to dynamically alter time and frequency allocations of resources in the first radio access technology system according to a predefined procedure to maximize additional resources for using in the second radio access technology system; receiving, by the network element for a second radio access technology system, scheduling information for using resources in a first radio access technology system, wherein the scheduling information comprises time and frequency allocations of resources in the first radio access technology system, and the additional resources are assigned based on the time and frequency allocations of resources in the first radio access technology system; and assigning, by the network element for the second radio access technology system, the additional resources for using in the second radio access technology system based on unused resources in the first radio access technology system determined from the scheduling information. cooperating, by a network element for a second radio access technology system, with a first radio access technology system to dynamically alter time and frequency allocations of resources in the first radio access technology system according to a predefined procedure to maximize additional resources for using in the second radio access technology system; receiving, by the network element for a second radio access technology system, scheduling information for using resources in a first radio access technology system, wherein the scheduling information comprises time and frequency allocations of resources in the first radio access technology system, and the additional resources are assigned based on the time and frequency allocations of resources in the first radio access technology system; and assigning, by the network element for the second radio access technology system, the additional resources for using in the second radio access technology system based on unused resources in the first radio access technology system determined from the scheduling information.
An infrared thermal sensor for detecting infrared radiation, the infrared thermal sensor comprising: - a substrate and a cap structure together forming a sealed cavity, the cavity comprising a gas composition at a predefined pressure; - a membrane arranged in said cavity for receiving infrared radiation through a window or aperture; - a plurality of beams for suspending the membrane; - a plurality of thermocouples arranged on said plurality of beams for measuring a temperature difference (ΔT) between the membrane and the substrate due to incident infrared radiation; characterized in that the ratio of the thermal resistance between the membrane and the substrate through the thermocouples on one hand, and the thermal resistance between the membrane and the substrate through the beams excluding the thermocouple material and through the gas composition on the other hand is a value in the range of 0.8 to 1.2, wherein a numerator of the ratio comprises the thermal resistance between the membrane and the substrate through the plurality of thermocouples, and a denominator of the ratio comprises the thermal resistance between the membrane and the substrate through the plurality of beams and through the gas composition. - a substrate and a cap structure together forming a sealed cavity, the cavity comprising a gas composition at a predefined pressure; - a membrane arranged in said cavity for receiving infrared radiation through a window or aperture; - a plurality of beams for suspending the membrane; - a plurality of thermocouples arranged on said plurality of beams for measuring a temperature difference (ΔT) between the membrane and the substrate due to incident infrared radiation;
Microplate comprising a plurality of wells arranged in a two-dimensional array, wherein the microplate comprises a frame and several longitudinal struts each comprising a row of wells, wherein the struts are pivotably arranged in the frame, wherein each row of wells is inclinable mounted in the microplate characterised in that the axis of each well aligns with the direction of a centrifugal force during centrifuging of the microplate.
A curable composition for forming a high refractive index optical material, the curable composition comprising: an episulfide compound; a thiol compound; and an aromatic ring compound containing two or more hydroxyl groups; wherein the weight ratio of the thiol compound and the aromatic ring compound containing two or more hydroxyl groups is 7:3 to 9:1. an episulfide compound; a thiol compound; and an aromatic ring compound containing two or more hydroxyl groups; wherein the weight ratio of the thiol compound and the aromatic ring compound containing two or more hydroxyl groups is 7:3 to 9:1.
An electrochemical cell comprising: a negative electrode including a form of lithium; a positive electrode spaced apart from the negative electrode; a separator positioned between the negative electrode and the positive electrode; and a first lithium ion conducting and ionically insulating composite solid electrolyte layer positioned between the negative electrode and the positive electrode; characterized in that the first lithium ion conducting and ionically insulating composite solid electrolyte layer comprises a block copolymer matrix within which are embedded lithium-conducting particles of ceramic or glass; and a layer of fully dense lithium-conducting ceramic or glass. a negative electrode including a form of lithium; a positive electrode spaced apart from the negative electrode; a separator positioned between the negative electrode and the positive electrode; and a first lithium ion conducting and ionically insulating composite solid electrolyte layer positioned between the negative electrode and the positive electrode; characterized in that the first lithium ion conducting and ionically insulating composite solid electrolyte layer comprises a block copolymer matrix within which are embedded lithium-conducting particles of ceramic or glass; and a layer of fully dense lithium-conducting ceramic or glass.
An insert for the air conditioning of a vehicle, including at least one spacer material part, in which open regions are formed that extend from an upper side to an opposite lower side constituting an air guide structure, the at least one spacer material part being covered at the upper side and/or at the lower side by at least one cover layer, wherein the open regions of the air guide structure comprise a plurality of channels, wherein the channels are open from the upper side to the lower side of the at least one spacer material part and wherein the cover layer includes perforations associated with the channels in the spacer material part, and in that the plurality of channels are connected to each other at least in partial regions of the at least one spacer material part forming flow regions or flow zones, characterized in that the plurality of channels are connected to form a net-like channel structure, in that the at least one cover layer includes a respective perforation in the region of connecting or crossing points of the channels, and in that the connecting point between two or more channels forms a hole extending from the upper side to the lower side of the at least one spacer material part, so that island-like regions of the at least one spacer material part between the channels which are partially separated from each other are held together by the cover layer.
An image forming method comprising an ink supplying process for supplying an ink composition including a pigment, a pyrrolidone derivative, a compound represented by the following structural formula, and water to a recording medium being transported at a transportation speed of 80 m/min or more so as to form images, wherein: l, m and n are respectively an integer of 1 or more and l + m + n indicates 3 to 15 and AO represents at least one of ethyleneoxy and propyleneoxy.
A vehicle taillight system comprising: a light source directed into a light modifier, the light modifier including a plurality of optical elements (122, 128, 138, 140) on a side of the modifier that faces the light source, and an opaque or translucent covering on an opposite side of the modifier; a plurality of diversely-configured apertures (112, 124, 130, 132) located on the opposite side of the modifier, each aperture (112, 124, 130, 132) having a width and being formed in the opaque or translucent covering; wherein the plurality of optical elements (122, 128, 138, 140) is configured to direct light through each of the plurality of diversely-configured apertures (112, 124, 130, 132), respectively, for the purpose of accomplishing a lighting function; characterized in that the plurality of optical elements (122, 128, 138, 140) and diversely-configured apertures (112, 124, 130, 132) include diverse patterns forming at least two different arrangements (114, 116, 118) at different locations on the modifier, each arrangement being configured to execute a designated vehicle taillight function, and in that the plurality of diversely-configured apertures includes at least one curved slot (112, 124), and the plurality of optical elements includes at least one curved flute (122, 128) following and being centered over the at least one curved slot, the curved flute being configured to emit light through the curved slot. a light source directed into a light modifier, the light modifier including a plurality of optical elements (122, 128, 138, 140) on a side of the modifier that faces the light source, and an opaque or translucent covering on an opposite side of the modifier; a plurality of diversely-configured apertures (112, 124, 130, 132) located on the opposite side of the modifier, each aperture (112, 124, 130, 132) having a width and being formed in the opaque or translucent covering; wherein the plurality of optical elements (122, 128, 138, 140) is configured to direct light through each of the plurality of diversely-configured apertures (112, 124, 130, 132), respectively, for the purpose of accomplishing a lighting function; characterized in that the plurality of optical elements (122, 128, 138, 140) and diversely-configured apertures (112, 124, 130, 132) include diverse patterns forming at least two different arrangements (114, 116, 118) at different locations on the modifier, each arrangement being configured to execute a designated vehicle taillight function, and in that the plurality of diversely-configured apertures includes at least one curved slot (112, 124), and the plurality of optical elements includes at least one curved flute (122, 128) following and being centered over the at least one curved slot, the curved flute being configured to emit light through the curved slot.
A method for producing a radiopharmaceutical, comprising the following steps: - obtaining a generator eluate comprising 68 gallium from a 68 Ge/ 68 Ga generator by means of hydrochloric acid (HCl), - passing the generator eluate into a cation exchange cartridge in which the 68 gallium is held, - removing an effluent of the generator eluate from the cation exchange cartridge, - eluting the 68 gallium from the cation exchange cartridge by means of a solution comprising sodium chloride (NaCl) and hydrochloric acid (HCl) and passing it into a mixture of ethylene-diaminetetra(methylenephosphonic acid) (EDTMP) as labeling precursor and sodium acetate (C 2 H 3 NaO 2). - obtaining a generator eluate comprising 68 gallium from a 68 Ge/ 68 Ga generator by means of hydrochloric acid (HCl), - passing the generator eluate into a cation exchange cartridge in which the 68 gallium is held, - removing an effluent of the generator eluate from the cation exchange cartridge, - eluting the 68 gallium from the cation exchange cartridge by means of a solution comprising sodium chloride (NaCl) and hydrochloric acid (HCl) and passing it into a mixture of ethylene-diaminetetra(methylenephosphonic acid) (EDTMP) as labeling precursor and sodium acetate (C 2 H 3 NaO 2).
A snow groomer for preparing snow runs, the snow groomer comprising a winch assembly comprising a supporting structure configured for being mounted on board the snow groomer, a rope, a motorized reel for selectively winding and unwinding the rope, and a rope control device for guiding and tensioning the rope with respect to the reel, characterized by a cleaning device for cleaning the outer face of the rope, and an inspection device for inspecting the conditions of the rope; a cab for housing the driver; an interface for informing the driver about the conditions of the rope, wherein the rope has a substantially circular cross-section and comprises a core, a plurality of strands arranged around the core, and a sheath, which is arranged around the strands and is made of a polymer material for sealing and protecting the strands from the outside.
A gold cluster (AuC) for use in the treatment of multiple sclerosis, wherein said AuC comprises: a gold core; and a ligand bonded to the gold core; wherein, the ligand is one selected from the group consisting of L-cysteine and its derivatives, D-cysteine and its derivatives, and cysteine-containing oligopeptides and their derivatives; wherein the L-cysteine and its derivatives are selected from the group consisting of L-cysteine, N-isobutyryl-L-cysteine (L-NIBC), and N-acetyl-L-cysteine (L-NAC), and wherein the D-cysteine and its derivatives are selected from the group consisting of D-cysteine, N-isobutyryl-D-cysteine (D-NIBC), and N-acetyl-D-cysteine (D-NAC); wherein the cysteine-containing oligopeptides and their derivatives are cysteine-containing dipeptides, cysteine-containing tripeptides or cysteine-containing tetrapeptides; wherein the cysteine-containing dipeptides are selected from the group consisting of L-cysteine-L-arginine dipeptide, L-arginine-L-cysteine dipeptide, L-histidine-L-cysteine dipeptide, and L-cysteine-L-histidine dipeptide; wherein the cysteine-containing tripeptides are selected from the group consisting of glycine-L-cysteine-L-arginine tripeptide, L-proline-L-cysteine-L-arginine tripeptide, L-lysine-L-cysteine-L-proline tripeptide, and L-glutathione; wherein the cysteine-containing tetrapeptides are selected from the group consisting of glycine-L-serine-L-cysteine-L-arginine tetrapeptide (GSCR), and glycine-L-cysteine-L-serine-L-arginine tetrapeptide (GCSR). a gold core; and a ligand bonded to the gold core; wherein, the ligand is one selected from the group consisting of L-cysteine and its derivatives, D-cysteine and its derivatives, and cysteine-containing oligopeptides and their derivatives; wherein the L-cysteine and its derivatives are selected from the group consisting of L-cysteine, N-isobutyryl-L-cysteine (L-NIBC), and N-acetyl-L-cysteine (L-NAC), and wherein the D-cysteine and its derivatives are selected from the group consisting of D-cysteine, N-isobutyryl-D-cysteine (D-NIBC), and N-acetyl-D-cysteine (D-NAC); wherein the cysteine-containing oligopeptides and their derivatives are cysteine-containing dipeptides, cysteine-containing tripeptides or cysteine-containing tetrapeptides; wherein the cysteine-containing dipeptides are selected from the group consisting of L-cysteine-L-arginine dipeptide, L-arginine-L-cysteine dipeptide, L-histidine-L-cysteine dipeptide, and L-cysteine-L-histidine dipeptide; wherein the cysteine-containing tripeptides are selected from the group consisting of glycine-L-cysteine-L-arginine tripeptide, L-proline-L-cysteine-L-arginine tripeptide, L-lysine-L-cysteine-L-proline tripeptide, and L-glutathione; wherein the cysteine-containing tetrapeptides are selected from the group consisting of glycine-L-serine-L-cysteine-L-arginine tetrapeptide (GSCR), and glycine-L-cysteine-L-serine-L-arginine tetrapeptide (GCSR).