mhurhangee/ep-ind-claims huggingface dataset:
A receiving apparatus comprising: a channel estimating unit configured to calculate a channel estimation value for each carrier of a single carrier block of a received signal to generate a plurality of channel estimation values; a demodulation processing unit configured to demodulate the received signal on the basis of the plurality of channel estimation values; a weight calculating unit configured to calculate a weight for each of the plurality of channel estimation values to generate a plurality of weights and configured to calculate a weight of the single carrier block on the basis of the plurality of weights wherein the weight calculating unit is adaptable to a plurality of weight calculation methods; a decoding unit configured to perform decoding on the basis of a demodulation result generated by the demodulation processing unit and the weight of the single carrier block generated by the weight calculating unit and further configured to generate a value indicating a reliability of a decoded bit output obtained by the decoding unit and a control unit configured to select one of the plurality of weight calculation methods on the basis of the value indicating the reliability of the decoded bit output and to set a selected weight calculation method in the weight calculation unit. a channel estimating unit configured to calculate a channel estimation value for each carrier of a single carrier block of a received signal to generate a plurality of channel estimation values; a demodulation processing unit configured to demodulate the received signal on the basis of the plurality of channel estimation values; a weight calculating unit configured to calculate a weight for each of the plurality of channel estimation values to generate a plurality of weights and configured to calculate a weight of the single carrier block on the basis of the plurality of weights wherein the weight calculating unit is adaptable to a plurality of weight calculation methods; a decoding unit configured to perform decoding on the basis of a demodulation result generated by the demodulation processing unit and the weight of the single carrier block generated by the weight calculating unit and further configured to generate a value indicating a reliability of a decoded bit output obtained by the decoding unit and a control unit configured to select one of the plurality of weight calculation methods on the basis of the value indicating the reliability of the decoded bit output and to set a selected weight calculation method in the weight calculation unit.
A measuring device for measuring a path and / or a speed of an object moving relative to the measuring device, having a measuring wheel which is fixed to a shaft of a rotary encoder and is placed on the object with a running surface, and having a holding unit for fastening the measuring device to a stationary component which is connected on a first side in a rotationally fixed manner to the measuring device, and on the second side opposite the first side is rotatably connected to the component by means of a rotary bearing such that the holding unit presses the measuring wheel against the object by means of a spring element, wherein the first end of the spring element is connected to the holding unit on the first side and the second end of the spring element is mounted on the second side in the rotary bearing is fixed in such a way that a fixing section of the spring element can be displaced along a longitudinal axis of the spring element opposite the second end of the spring element.
A combination of Z and E isomers of F1234ze comprising: a) from a trace up to less than 1 % by weight of an Z isomer of F1234ze; b) the balance an E isomer of F1234ze. a) from a trace up to less than 1 % by weight of an Z isomer of F1234ze; b) the balance an E isomer of F1234ze.
A planar transformer, of the type comprising a ferrite core (19, 20) and a succession of windings in a stack comprising a variable number of printed circuit boards (1, 2) and copper windings (3, 4), punched from sheet or wound, with interleaved insulating laminar members (5, 6, 7, 8, 9) in contact with all the surfaces of the windings and of variable thickness to adjust the gaps between the windings, said windings being connected together by connecting pins (10, 10', 10", 26-33) inserted there through, characterized in that the connecting pins are inserted in aligned orifices (11, 11', 11", 12) of the printed circuit boards (1, 2) and the copper windings (3, 4) and the transformer comprises a single preassembled block (21, 22, 23, 34) as a result of the stacking of the printed circuit boards and the copper windings with inserted connection pins and the interleaved insulating laminar members that are embedded in a single mass of insulating polyurethane resin which covers the assembly of said stacked elements externally and which enters the gaps between the windings, leaving the ferrite core outside and attached to the preassembled block.
A monoclonal antibody specifically binding to the whole CHIK virus, wherein the monoclonal antibody specifically binds to a CHIK E2 protein epitope located on the outer surface of a CHIK virus and is selected from the group deposited at the CNCM (Collection Nationale de Cultures de Microorganismes), 28 rue du Docteur Roux, 75724 Paris Cedex 15, on September 06, 2007 under accession number I-3824 (3E4), and I-3823 (8A4).
A reduced-pressure system for treating a linear wound on a patient, the system comprising: a closing dressing bolster made of a see-through material for placing on the patient's epidermis over the linear wound, comprising: a top wall, a bottom wall, the top wall and bottom wall coupled in a spaced relationship, the bottom wall having a center portion, a first lateral portion, and a second lateral portion, a first closing member (52, 152, 252) formed on the first lateral portion, a second closing member (54, 154, 254) formed on the second lateral portion; and a see-through sealing subsystem for forming a seal over the closing dressing bolster and the patient; a reduced-pressure subsystem for delivering reduced pressure to the closing dressing bolster; and wherein the first closing member (52, 152, 252) and second closing member (54, 154, 254) are operable to move towards each other under reduced pressure. a closing dressing bolster made of a see-through material for placing on the patient's epidermis over the linear wound, comprising: a top wall, a bottom wall, the top wall and bottom wall coupled in a spaced relationship, the bottom wall having a center portion, a first lateral portion, and a second lateral portion, a first closing member (52, 152, 252) formed on the first lateral portion, a second closing member (54, 154, 254) formed on the second lateral portion; and a top wall, a bottom wall, the top wall and bottom wall coupled in a spaced relationship, the bottom wall having a center portion, a first lateral portion, and a second lateral portion, a first closing member (52, 152, 252) formed on the first lateral portion, a second closing member (54, 154, 254) formed on the second lateral portion; and a see-through sealing subsystem for forming a seal over the closing dressing bolster and the patient; a reduced-pressure subsystem for delivering reduced pressure to the closing dressing bolster; and wherein the first closing member (52, 152, 252) and second closing member (54, 154, 254) are operable to move towards each other under reduced pressure.
A plumbing circuit including a cold water stream and a hot water stream respectively connected to the cold water valve and the hot water valve of a faucet assembly, an accumulator including a water receiving cavity therein, said accumulator flow connected to the cold water stream through a draining flow path (FP2 and FP4), a temperature actuated valve assembly interposed to receive said hot water stream for diverting said hot water stream into said accumulator if the temperature thereof is below a predetermined temperature and into an outlet flow path flow connected to said hot water valve if the temperature thereof is above said predetermined temperature, characterized in that said faucet assembly is provided with a flow restrictor; said accumulator includes a pressure biasing membrane therein, and said plumbing circuit further comprises a shuttle assembly interposed between said valve assembly and said accumulator for bypassing said accumulator during such periods when said accumulator is substantially full of water and to convey said hot water stream directly into said hot water valve, a second shuttle valve assembly connected to said accumulator and to said cold water stream; said second shuttle valve assembly having a piston assembly shuttling within its interior and comprising a smaller exposed area piston opposing a valve seat of said second shuttle valve assembly for controlling the flow of water in the cold water stream through the second shuttle valve assembly and a larger exposed area piston that communicates with said accumulator through said draining flow path (FP2 and FP4); wherein when cold water valve is opened and when the total force on the larger exposed area piston exceeds the total force on the smaller exposed area piston, said piston assembly shuttles toward said valve seat favoring flow from accumulator through said draining flow path (FP2 and FP4) and said cold water valve; and when cold water valve is opened and when the total force on the smaller exposed area piston exceeds the total force on the larger exposed area piston, said piston assembly shuttles away from the valve seat allowing water in the cold water stream to flow through said second shuttle valve assembly and to said cold water valve such that when the accumulator is close to empty, the smaller exposed area position shuttles away from the valve seat allowing cold water to flow through the shuttle valve assembly to said cold water valve; the plumbing circuit further comprising an equalizer assembly flow connected to said outlet flow path between said hot water valve and both said shuttle assembly and said temperature actuated valve assembly and to said cold water stream between said accumulator and said cold water valve for restricting the flow through said outlet flow path to said hot water valve when the pressure in the cold water stream decreases to thereby concurrently increase the flow from said accumulator through said cold water valve.
A light device (1, 30) for a vehicle, comprising: first light sources (8, 36) oriented to an irradiation direction of the light device (1, 30) for a vehicle; second light sources (11, 38) directed to the opposite direction of the irradiation direction; a base plate (4, 5, 34) of a tabular shape that mounts the first light sources (8, 36) and the second light sources (11, 38); and a lens (3, 33) that allows irradiation light (8a, 36a) of the first light sources (8, 36) and irradiation light (11a, 38a) of the second light sources (11, 38) to permeate therethrough, wherein the base plate (4, 5, 34) is disposed perpendicularly to the irradiation direction of the light device (1, 30) for a vehicle, and the light device (1, 30) is further provided with: a reflector (7, 39) that reflects the irradiation light (11a, 38a) of the second light sources (11, 38) to the irradiation direction; and an extension section (4a, 34a) that surrounds the first light sources (8, 36) and stands so as to be oriented to the irradiation direction; the light device being characterized in that the extension section (4a, 34a) extends to a position adjacent to the rear surface of the lens (3, 33). first light sources (8, 36) oriented to an irradiation direction of the light device (1, 30) for a vehicle; second light sources (11, 38) directed to the opposite direction of the irradiation direction; a base plate (4, 5, 34) of a tabular shape that mounts the first light sources (8, 36) and the second light sources (11, 38); and a lens (3, 33) that allows irradiation light (8a, 36a) of the first light sources (8, 36) and irradiation light (11a, 38a) of the second light sources (11, 38) to permeate therethrough, wherein the base plate (4, 5, 34) is disposed perpendicularly to the irradiation direction of the light device (1, 30) for a vehicle, and the light device (1, 30) is further provided with: a reflector (7, 39) that reflects the irradiation light (11a, 38a) of the second light sources (11, 38) to the irradiation direction; and an extension section (4a, 34a) that surrounds the first light sources (8, 36) and stands so as to be oriented to the irradiation direction; a reflector (7, 39) that reflects the irradiation light (11a, 38a) of the second light sources (11, 38) to the irradiation direction; and an extension section (4a, 34a) that surrounds the first light sources (8, 36) and stands so as to be oriented to the irradiation direction; the light device being characterized in that the extension section (4a, 34a) extends to a position adjacent to the rear surface of the lens (3, 33).
An image processing apparatus comprising: an application controller configured to execute an application for processing an image; a display unit configured to display information indicating that an error is generated when the application is not normally executed; characterized by further comprises: an application storage unit for storing various plug-in applications that are executed by the application controller; and an event detector configured to perform an event detection process during which it detects any state when one of the various plug-in applications is not normally executed, wherein the event detector is configured to detect the generated error and determine a display location of the information based on whether or not a process executed by the application includes displaying an image on the display when the error is generated. an application controller configured to execute an application for processing an image; a display unit configured to display information indicating that an error is generated when the application is not normally executed; characterized by further comprises: an application storage unit for storing various plug-in applications that are executed by the application controller; and an event detector configured to perform an event detection process during which it detects any state when one of the various plug-in applications is not normally executed, wherein the event detector is configured to detect the generated error and determine a display location of the information based on whether or not a process executed by the application includes displaying an image on the display when the error is generated. an application storage unit for storing various plug-in applications that are executed by the application controller; and an event detector configured to perform an event detection process during which it detects any state when one of the various plug-in applications is not normally executed, wherein the event detector is configured to detect the generated error and determine a display location of the information based on whether or not a process executed by the application includes displaying an image on the display when the error is generated.
Trapping mass for trapping heavy metals in a liquid or gaseous effluent comprising a calcined predominantly aluminous oxide matrix having an alumina content of greater than or equal to 90% by weight relative to said matrix and an active phase comprising at least one metal sulfide, the metal of which is selected from the group consisting of copper, chromium, manganese, iron, cobalt and nickel, said active phase being entirely co-mixed within said calcined predominantly aluminous oxide matrix, the weight percentage of the metal(s) of the active phase, expressed relative to the total weight of the trapping mass being between 4 and 55%, said mass being characterized by a trimodal pore size distribution and in which the value represented by the pores having a diameter of greater than 3.6 nm and less than or equal to 20 nm represents between 30% and 60% of the total pore volume, the volume represented by the pores having a diameter of greater than 20 nm and less than or equal to 100 nm represents between 20% and 45% of the total pore volume, the volume represented by the pores having a diameter of greater than 100 nm represents between 10% and 40% of the total pore volume.
A cooling apparatus for a hydrostatic transmission, comprising: a cooling body to be coupled with a hydrostatic transmission; a sidewall member configured to protrude from the cooling body to surround a cooling flow path which cools a working fluid supplied from the hydrostatic transmission and then discharges the working fluid into the hydrostatic transmission or a storage tank; an installing member configured to protrude from the cooling body at a position spaced apart from the sidewall member to be disposed inside the sidewall member; a detour member connected to the installing member and configured to protrude from the cooling body to extend in a first axial direction to allow the working fluid, which flows along the cooling flow path, to make a detour; and a plurality of protruding members configured to protrude from the cooling body to be spaced apart from each of the sidewall member, the installing member, and the detour member in the cooling flow path, wherein the protruding members are arranged in positions spaced apart from each other to form a through groove to allow the working fluid to pass therethrough. a cooling body to be coupled with a hydrostatic transmission; a sidewall member configured to protrude from the cooling body to surround a cooling flow path which cools a working fluid supplied from the hydrostatic transmission and then discharges the working fluid into the hydrostatic transmission or a storage tank; an installing member configured to protrude from the cooling body at a position spaced apart from the sidewall member to be disposed inside the sidewall member; a detour member connected to the installing member and configured to protrude from the cooling body to extend in a first axial direction to allow the working fluid, which flows along the cooling flow path, to make a detour; and a plurality of protruding members configured to protrude from the cooling body to be spaced apart from each of the sidewall member, the installing member, and the detour member in the cooling flow path, wherein the protruding members are arranged in positions spaced apart from each other to form a through groove to allow the working fluid to pass therethrough.
A liquid crystal display device comprising an electrode group formed on one or both of a pair of substrates that are opposed to each other, and a plurality of active devices connected to the electrode group, and a liquid crystal photoalignment film formed on the opposing surfaces of the pair of substrates, wherein the liquid crystal photoalignment film comprises a polymer having a photoreactive group, and a liquid crystal composition sandwiched in between the pair of substrates, and the liquid crystal composition comprises at least one compound selected from the group of compounds represented by formula as a first component: in formula, R 1 is alkyl having 1 to 12 carbons, alkoxy having 1 to 12 carbons or alkenyl having 2 to 12 carbons; ring A is 1,4-cyclohexylene, 1,4-phenylene, 2-fluoro-1,4-phenylene, 2,3-difluoro-1,4-phenylene, 2,6-difluoro-1,4-phenylene, pyrimidine-2,5-diyl, 1,3-dioxane-2,5-diyl or tetrahydropyran-2,5-diyl; Z 1 is a single bond, ethylene, carbonyloxy or difluoromethyleneoxy; X 1 and X 2 are fluorine; Y 1 is fluorine, chlorine, alkyl having 1 to 12 carbons in which at least one hydrogen has been replaced by halogen, alkoxy having 1 to 12 carbons in which at least one hydrogen has been replaced by halogen or alkenyloxy having 2 to 12 carbons in which at least one hydrogen has been replaced by halogen; and a is 1, 2, 3 or 4.
A β-amylase having an amino acid sequence set forth in SEQ ID NO: 7, or an amino acid sequence having 90% or more identity to the amino acid sequence set forth in SEQ ID NO: 7.
Apparatus comprising: a stent configured to be placed inside an aorta of a subject, the stent comprising one or more electrodes, control circuitry, and a first antenna coupled thereto; and a second antenna configured to be placed on the subject, the second antenna being configured to transmit an electrical signal to the first antenna via inductive coupling, characterized in that: the second antenna is configured, when placed on the subject, to extend at least from above a left clavicle of the subject to below a jugular notch of the subject and from below the subject's jugular notch to above a right clavicle of the subject; and the second antenna is shaped such that the antenna has an L-shaped projection in a sagittal plane of the subject, and an angle (γ) between two legs (204,208) of the L-shaped projection is 80-160 degrees when the second antenna is placed on a flat surface. a stent configured to be placed inside an aorta of a subject, the stent comprising one or more electrodes, control circuitry, and a first antenna coupled thereto; and a second antenna configured to be placed on the subject, the second antenna being configured to transmit an electrical signal to the first antenna via inductive coupling, characterized in that: the second antenna is configured, when placed on the subject, to extend at least from above a left clavicle of the subject to below a jugular notch of the subject and from below the subject's jugular notch to above a right clavicle of the subject; and the second antenna is shaped such that the antenna has an L-shaped projection in a sagittal plane of the subject, and an angle (γ) between two legs (204,208) of the L-shaped projection is 80-160 degrees when the second antenna is placed on a flat surface. the second antenna is configured, when placed on the subject, to extend at least from above a left clavicle of the subject to below a jugular notch of the subject and from below the subject's jugular notch to above a right clavicle of the subject; and the second antenna is shaped such that the antenna has an L-shaped projection in a sagittal plane of the subject, and an angle (γ) between two legs (204,208) of the L-shaped projection is 80-160 degrees when the second antenna is placed on a flat surface.
A process for the preparation of N-(3-ethynylphenyl)-7-methoxy-6-(3-morpholinopropoxy)quinazolin-4-amine dihydrochloride of formula-I comprising the steps of: a) selective demethylation of 6,7-dimethoxy-quinazoline-4 -one of formula-XIII using de-methylating agent to get 6-hydroxy-7-methoxy-quinazoline-4 -one of formula-XIV, b) converting 6-hydroxy-7-methoxy-quinazoline-4 -one of formula-XIV to 4-(3-ethynylanilino)-7-methoxy-quinazolin-6-ol of formula-XVIII, c) condensing 4-(3-ethynylanilino)-7-methoxy-quinazolin-6-ol of formula-XVIII with 3-morpholinopropyl chloride of formula-VI, in dimethylformamide-potassium carbonate medium to get N-(3-ethynylphenyl)-7-methoxy-6-(3-morpholinopropoxy)quinazolin-4-amine of formula-IV, d) converting N-(3-ethynylphenyl)-7-methoxy-6-(3-morpholinopropoxy) quinazolin-4-amine of formula-IV to dihydrochloride salt of formula-I using hydrochloric acid gas dissolved in organic solvent medium. a) selective demethylation of 6,7-dimethoxy-quinazoline-4 -one of formula-XIII using de-methylating agent to get 6-hydroxy-7-methoxy-quinazoline-4 -one of formula-XIV, b) converting 6-hydroxy-7-methoxy-quinazoline-4 -one of formula-XIV to 4-(3-ethynylanilino)-7-methoxy-quinazolin-6-ol of formula-XVIII, c) condensing 4-(3-ethynylanilino)-7-methoxy-quinazolin-6-ol of formula-XVIII with 3-morpholinopropyl chloride of formula-VI, in dimethylformamide-potassium carbonate medium to get N-(3-ethynylphenyl)-7-methoxy-6-(3-morpholinopropoxy)quinazolin-4-amine of formula-IV, d) converting N-(3-ethynylphenyl)-7-methoxy-6-(3-morpholinopropoxy) quinazolin-4-amine of formula-IV to dihydrochloride salt of formula-I using hydrochloric acid gas dissolved in organic solvent medium.