mhurhangee/ep-ind-claims huggingface dataset:
A particle beam irradiation apparatus that is adapted to irradiate a charged particle beam accelerated by an accelerator onto an irradiation subject, the particle beam irradiation apparatus comprising: - a vacuum duct (6, 7) that forms a vacuum region through which the charged particle beam passes; - a vacuum window that includes a window plate and is provided at the downstream side of the vacuum duct (6, 7) and through which the charged particle beam is launched from the vacuum region; - a scanning electromagnet (2, 3) that is adapted to scan the charged particle beam in a direction that is perpendicular to a beam axis; - a monitoring apparatus including a position monitor that is adapted to detect a passing position of the charged particle beam and a beam size thereof; - a low-scattering gas filling chamber that covers the vacuum window and at the downstream side of which, the monitoring apparatus is disposed; and - an irradiation management apparatus that is adapted to control irradiation of the charged particle beam, wherein the low-scattering gas filling chamber is configured to be adjustable in such a manner that the beam-axis-direction positional relationship between the monitoring apparatus and the vacuum window is adjustable, such that when the charged particle beam is irradiated, the low-scattering gas filling chamber is adapted to be filled with a low-scattering gas that is adapted to scatter the charged particle beam less than air does, wherein the low-scattering gas filling chamber includes the monitoring apparatus disposed at the downstream side thereof, a monitor holder that holds the monitoring apparatus, an upper seal disposed on the outer circumference of the vacuum duct (6, 7), and a bellows that movably connects the upper seal with the monitor holder, and wherein the monitoring apparatus is a cover of the downstream side in the low-scattering gas filling chamber. - a vacuum duct (6, 7) that forms a vacuum region through which the charged particle beam passes; - a vacuum window that includes a window plate and is provided at the downstream side of the vacuum duct (6, 7) and through which the charged particle beam is launched from the vacuum region; - a scanning electromagnet (2, 3) that is adapted to scan the charged particle beam in a direction that is perpendicular to a beam axis; - a monitoring apparatus including a position monitor that is adapted to detect a passing position of the charged particle beam and a beam size thereof; - a low-scattering gas filling chamber that covers the vacuum window and at the downstream side of which, the monitoring apparatus is disposed; and - an irradiation management apparatus that is adapted to control irradiation of the charged particle beam, wherein the low-scattering gas filling chamber is configured to be adjustable in such a manner that the beam-axis-direction positional relationship between the monitoring apparatus and the vacuum window is adjustable, such that when the charged particle beam is irradiated, the low-scattering gas filling chamber is adapted to be filled with a low-scattering gas that is adapted to scatter the charged particle beam less than air does,
Wiping system (1; 1') for a glazed vehicle surface comprising: - a wiper having a wiper blade provided with at least one channel in which a washing fluid is intended to circulate, said channel extending along the longitudinal axis of the wiper blade and emerging laterally from the wiper blade through at least one spraying orifice, and - a connector (3; 3') linked to the wiper and intended to be linked to a wiper arm of a vehicle, characterized in that the connector (3; 3') has at least one opening (15; 16) formed facing at least one spraying orifice of the wiper blade. - a wiper having a wiper blade provided with at least one channel in which a washing fluid is intended to circulate, said channel extending along the longitudinal axis of the wiper blade and emerging laterally from the wiper blade through at least one spraying orifice, and - a connector (3; 3') linked to the wiper and intended to be linked to a wiper arm of a vehicle, characterized in that the connector (3; 3') has at least one opening (15; 16) formed facing at least one spraying orifice of the wiper blade.
A manually-actuated vacuum pump, comprising: a supply chamber having a supply port adapted for coupling to a supply lumen; and a charging chamber fluidly coupled to the supply chamber through a charging port; characterized by a control chamber having a control port adapted for coupling to a feedback lumen; and a regulator valve within the control chamber and operable to move within the control chamber to control fluid communication through the charging port based on a differential between a control pressure in the control chamber and a target pressure. a supply chamber having a supply port adapted for coupling to a supply lumen; and a charging chamber fluidly coupled to the supply chamber through a charging port; characterized by a control chamber having a control port adapted for coupling to a feedback lumen; and a regulator valve within the control chamber and operable to move within the control chamber to control fluid communication through the charging port based on a differential between a control pressure in the control chamber and a target pressure.
An aluminium alloy product comprising, in % by weight, Cu: 2.5-3.4; preferably 2.8-3.2; Li: 1.6-2.2; preferably 1.65-1.8; Mg: 0.4-0.9; preferably 0.5-0.8; Mn: 0.2-0.6; preferably 0.3-0.6; Zr: 0.08-0.18; preferably 0.12-0.16; Zn: <0.4, preferably 0.05-0.4; more preferably 0.2-0.4; Ag: <0.15; preferably <0.1; yet more preferably <0.05; Fe + Si ≤ 0.20; at least one element selected from Ti, Sc, Cr, Hf and V, the content of the element, if it is selected, being: Ti: 0.01 - 0.15; preferably 0.01-0.05; Sc: 0.01-0.15, preferably 0.02-0.1; Cr: 0.01 - 0.3, preferably 0.02-0.1; Hf: 0.01-0.5; preferably 0.02-0.1; V: 0.01-0.3, preferably 0.01-0.05; other elements ≤ 0.05 each and ≤ 0.15 in total, the rest being aluminium. Cu: 2.5-3.4; preferably 2.8-3.2; Li: 1.6-2.2; preferably 1.65-1.8; Mg: 0.4-0.9; preferably 0.5-0.8; Mn: 0.2-0.6; preferably 0.3-0.6; Zr: 0.08-0.18; preferably 0.12-0.16; Zn: <0.4, preferably 0.05-0.4; more preferably 0.2-0.4; Ag: <0.15; preferably <0.1; yet more preferably <0.05; Fe + Si ≤ 0.20; at least one element selected from Ti, Sc, Cr, Hf and V, the content of the element, if it is selected, being: Ti: 0.01 - 0.15; preferably 0.01-0.05; Sc: 0.01-0.15, preferably 0.02-0.1; Cr: 0.01 - 0.3, preferably 0.02-0.1; Hf: 0.01-0.5; preferably 0.02-0.1; V: 0.01-0.3, preferably 0.01-0.05; Ti: 0.01 - 0.15; preferably 0.01-0.05; Sc: 0.01-0.15, preferably 0.02-0.1; Cr: 0.01 - 0.3, preferably 0.02-0.1; Hf: 0.01-0.5; preferably 0.02-0.1; V: 0.01-0.3, preferably 0.01-0.05; other elements ≤ 0.05 each and ≤ 0.15 in total, the rest being aluminium.
A liquid ejecting head comprising: a pressure chamber substrate on which a plurality of spaces as pressure chambers are formed along a first direction; a nozzle substrate on which a plurality of nozzles which eject liquid in the pressure chamber are formed by corresponding to the pressure chamber; and a flow path substrate on which a plurality of communicating holes which communicate with the nozzle and the pressure chamber which corresponds to the nozzle are formed between the pressure chamber substrate and the nozzle substrate, wherein the nozzles which are adjacent in the first direction are formed so that positions thereof in a second direction which is orthogonal to the first direction are different, and wherein the communicating holes which are adjacent in the first direction are formed so that positions in the second direction are different, wherein: side walls are formed around each of the communication holes, both ends of each pressure chamber in the second direction are formed by being aligned at a predetermined position in the second direction, and characterized in that the side walls extend along a direction orthogonal to the nozzle substrate. a pressure chamber substrate on which a plurality of spaces as pressure chambers are formed along a first direction; a nozzle substrate on which a plurality of nozzles which eject liquid in the pressure chamber are formed by corresponding to the pressure chamber; and a flow path substrate on which a plurality of communicating holes which communicate with the nozzle and the pressure chamber which corresponds to the nozzle are formed between the pressure chamber substrate and the nozzle substrate, wherein the nozzles which are adjacent in the first direction are formed so that positions thereof in a second direction which is orthogonal to the first direction are different, and wherein the communicating holes which are adjacent in the first direction are formed so that positions in the second direction are different, wherein: side walls are formed around each of the communication holes, both ends of each pressure chamber in the second direction are formed by being aligned at a predetermined position in the second direction, and characterized in that the side walls extend along a direction orthogonal to the nozzle substrate. side walls are formed around each of the communication holes, both ends of each pressure chamber in the second direction are formed by being aligned at a predetermined position in the second direction, and characterized in that the side walls extend along a direction orthogonal to the nozzle substrate.
A filament for three-dimensional printer molding which comprises a polyester-based thermoplastic elastomer wherein a durometer D hardness (JIS K6253-1993) is 40 or less and thermal properties measured with a differential scanning calorimeter satisfy the following conditions: a melting peak temperature is 120 to 220°C by heating at 10 °C/min; a crystallization peak temperature is 60 to 160°C by cooling at 10 °C/min; and the crystallization peak observed during cooling at 10 °C/min has a half-value temperature width of 10 to 30°C. a melting peak temperature is 120 to 220°C by heating at 10 °C/min; a crystallization peak temperature is 60 to 160°C by cooling at 10 °C/min; and the crystallization peak observed during cooling at 10 °C/min has a half-value temperature width of 10 to 30°C.
A system for determining a spatial property of tinnitus as perceived by a person comprising: a sound generation system that is operable to present test sounds to the person from a range of virtual sound source locations in 3D auditory space; and a feedback system that is arranged to: receive person feedback indicative of the virtual sound source location that most closely corresponds to the spatial location in 3D auditory space of the source of the tinnitus as perceived by the person; and output spatial information indicative of the spatial location of the source of the tinnitus based on the person's feedback, wherein the spatial information comprises data indicative of a 3D direction vector representing a direction in 3D auditory space corresponding to the spatial location of the source of the tinnitus as perceived by the person. a sound generation system that is operable to present test sounds to the person from a range of virtual sound source locations in 3D auditory space; and a feedback system that is arranged to: receive person feedback indicative of the virtual sound source location that most closely corresponds to the spatial location in 3D auditory space of the source of the tinnitus as perceived by the person; and output spatial information indicative of the spatial location of the source of the tinnitus based on the person's feedback, wherein the spatial information comprises data indicative of a 3D direction vector representing a direction in 3D auditory space corresponding to the spatial location of the source of the tinnitus as perceived by the person. receive person feedback indicative of the virtual sound source location that most closely corresponds to the spatial location in 3D auditory space of the source of the tinnitus as perceived by the person; and output spatial information indicative of the spatial location of the source of the tinnitus based on the person's feedback, wherein the spatial information comprises data indicative of a 3D direction vector representing a direction in 3D auditory space corresponding to the spatial location of the source of the tinnitus as perceived by the person.
Portable object comprising a case forming a housing inside which is arranged a device that requires air to operate, said portable object further comprising a closure device comprising at least one permeable element, said closure device being arranged to provide impermeability to liquids while allowing the atmosphere inside the housing to communicate with the external atmosphere, said case comprises a recess (32, 32', 132, 132') in which a through opening (34, 134) is made, said recess being closed by said closure device, said closure device comprising a permeable module (36, 136) mounted to move such that, in a gaseous environment, the permeable module is in a rest position allowing gases to penetrate said case opening through said permeable module and such that, in a liquid environment, the permeable module is in an operating position in which gases and liquids are blocked, characterized in that said permeable module (36, 136) comprises a tubular support (38, 138) at the end of which is fixed a membrane (40, 140), the support being mounted, in a suspended manner, by means of a flexible gasket (42, 142).
A method performed by a terminal device, comprising: determining an interlace configuration for uplink shared channel transmission to a network node in a two-step contention-free random access procedure; and performing the uplink shared channel transmission to the network node in the two-step contention-free random access procedure, according to the determined interlace configuration; characterised in that: the determination of the interlace configuration is based at least in part on dedicated signaling for the two-step contention-free random access procedure from the network node; and wherein the dedicated signaling includes one or more of: a start interlace index for an interlace or a set of interlaces allocated for the uplink shared channel transmission; a number of consecutive interlaces allocated for the uplink shared channel transmission; and a dedicated flag indicating whether to enable interlaced resource allocation for the uplink shared channel transmission in the two-step contention-free random access procedure. determining an interlace configuration for uplink shared channel transmission to a network node in a two-step contention-free random access procedure; and performing the uplink shared channel transmission to the network node in the two-step contention-free random access procedure, according to the determined interlace configuration; characterised in that: the determination of the interlace configuration is based at least in part on dedicated signaling for the two-step contention-free random access procedure from the network node; and wherein the dedicated signaling includes one or more of: a start interlace index for an interlace or a set of interlaces allocated for the uplink shared channel transmission; a number of consecutive interlaces allocated for the uplink shared channel transmission; and a dedicated flag indicating whether to enable interlaced resource allocation for the uplink shared channel transmission in the two-step contention-free random access procedure. the determination of the interlace configuration is based at least in part on dedicated signaling for the two-step contention-free random access procedure from the network node; and wherein the dedicated signaling includes one or more of: a start interlace index for an interlace or a set of interlaces allocated for the uplink shared channel transmission; a number of consecutive interlaces allocated for the uplink shared channel transmission; and a dedicated flag indicating whether to enable interlaced resource allocation for the uplink shared channel transmission in the two-step contention-free random access procedure. a start interlace index for an interlace or a set of interlaces allocated for the uplink shared channel transmission; a number of consecutive interlaces allocated for the uplink shared channel transmission; and a dedicated flag indicating whether to enable interlaced resource allocation for the uplink shared channel transmission in the two-step contention-free random access procedure.
β-hydroxy-β-methylbutyrate for use in treating allergies in an individual having or at risk for developing allergies, by administration to the individual of an effective amount of said β-hydroxy-β-methylbutyrate to modulate an imbalance in type 1 and type 2 cytokine production, wherein the ratio of type 1 to type 2 cytokine levels is increased by the administration β-hydroxy-β-methylbutyrate.
A method for predicting an amount of an analyte in a urine specimen, the method comprising the step of determining the measured amount of an analyte in a urine specimen collected in a predetermined time period after administration of a chelating agent, and predicting, from the measured amount of the analyte in the urine specimen collected in the predetermined time period after administration of the chelating agent, the amount of the analyte in a urine specimen collected in a target time period after the administration of the chelating agent on the basis of a correlation, wherein the predetermined time period is a time period different from the target time period, and wherein the correlation is a correlation between measured amounts of the analyte in urine specimens in the predetermined time period and measured amounts of the analyte in urine specimens in the target time period.
Method for testing a workpiece, in particular a printed circuit board, by means of a testing pin which passes through a holder with a shaft and which approaches a predetermined position on or in the workpiece, a position of the testing pin being changed relative to the holder, characterized in that in that a change in the position of the testing pin relative to the holder is effected by an intrinsically active polymer which at least partially surrounds the shaft of the testing pin, the intrinsically active polymers being applied to the holder by screen printing.
A compound represented by Formula, a pharmaceutically acceptable salt thereof, or a solvate thereof, for use in the treatment of sporadic amyotrophic lateral sclerosis, or familial ALS having a mutation in the FUS gene or the TAR DNA-binding protein 43 kDa (TDP-43) gene, wherein in Formula, R 1 each independently represents an alkyl group having 1 to 6 carbon atoms or a 4-hydroxyphenethyl group, and n represents an integer of 1 to 3.
A method of capturing three-dimensional information on a structure, comprising: obtaining a first image set containing images of the structure with at least one physical camera located at a first position, the first image set comprising one or more images; reconstructing 3D information from the first image set; obtaining explicit 3D information from a virtual camera out of an existing global model of the structure, the existing global model being note in a truncated signed distance function (TSDF); determining correspondences between the obtained 3D information and the reconstructed 3D information; determining camera motion between the obtained 3D information and the reconstructed 3D information from said correspondences; and updating the existing global model by entering the reconstructed 3D information using the determined camera motion. obtaining a first image set containing images of the structure with at least one physical camera located at a first position, the first image set comprising one or more images; reconstructing 3D information from the first image set; obtaining explicit 3D information from a virtual camera out of an existing global model of the structure, the existing global model being note in a truncated signed distance function (TSDF); determining correspondences between the obtained 3D information and the reconstructed 3D information; determining camera motion between the obtained 3D information and the reconstructed 3D information from said correspondences; and updating the existing global model by entering the reconstructed 3D information using the determined camera motion.
A distribution transformer having a primary side for receiving an input voltage and an input current from a source and a secondary side for providing an output voltage and an output current to a load, the distribution transformer comprising: at least a first ferromagnetic core (102,218) and a second ferromagnetic core (104,220); a first winding (106 a,b,c,212) wound around the first ferromagnetic core; a control winding (110 a,b,c,216) wound around the second ferromagnetic core; and a second winding (108 a,b,c,214) wound around the first and the second ferromagnetic cores, one of the first or the second windings configured for connection to the source and one of the first or the second windings configured for connection to the load; characterized in that it further comprises: an AC-AC converter configured to receive an alternating current AC signal either from the second winding (108 a,b,c,214) when the second winding (108 a,b,c,214) is configured for connection to the load, or from the source when the second winding (108 a,b,c,214) is configured for connection to the source, and output a modified alternating current AC signal, the modified AC signal applied to the control winding (110 a,b,c,216) to induce a current in the second winding (108 a,b,c,214). at least a first ferromagnetic core (102,218) and a second ferromagnetic core (104,220); a first winding (106 a,b,c,212) wound around the first ferromagnetic core; a control winding (110 a,b,c,216) wound around the second ferromagnetic core; and a second winding (108 a,b,c,214) wound around the first and the second ferromagnetic cores, one of the first or the second windings configured for connection to the source and one of the first or the second windings configured for connection to the load; characterized in that it further comprises: an AC-AC converter configured to receive an alternating current AC signal either from the second winding (108 a,b,c,214) when the second winding (108 a,b,c,214) is configured for connection to the load, or from the source when the second winding (108 a,b,c,214) is configured for connection to the source, and output a modified alternating current AC signal, the modified AC signal applied to the control winding (110 a,b,c,216) to induce a current in the second winding (108 a,b,c,214). an AC-AC converter configured to receive an alternating current AC signal either from the second winding (108 a,b,c,214) when the second winding (108 a,b,c,214) is configured for connection to the load, or from the source when the second winding (108 a,b,c,214) is configured for connection to the source, and output a modified alternating current AC signal, the modified AC signal applied to the control winding (110 a,b,c,216) to induce a current in the second winding (108 a,b,c,214).
A solder paste comprising a solder powder of an Sn-Zn based lead-free solder alloy mixed with a flux, characterized in that the solder paste further comprises nanoparticles in an amount of 0.01-2.0 mass percent based on the total solder paste, the nanoparticles having a particle diameter of 5 - 300 nm and at least the surface of the-nanoparticles consists of at least one metal selected from Ag, Au, and Cu.