mhurhangee/ep-ind-claims huggingface dataset:
A device for capturing detached particles from an object being processed by a tool, wherein the device comprises a container having an inlet opening to an internal space, guiding means (10, 10a) configured to lead particles, which are detached during a machining process, into the inner space of the container via the inlet opening, wherein the inner space contains a first material having a consistency such that it has the ability to receive and retain detached particles, which are led into the inner space during the machining process characterized in that the first material is hardable and that the device comprises hardening means which is configured to harden the first material such that it changes to a solid state after a machining process has been completed.
(2 R) -2-(6-{5-chloro-2-[(oxan-4-yl)amino]pyrimidin-4-yl}-1-oxo-2,3-dihydro-1H-isoindol-2-yl)-N-[(1 S)-1-(3-fluoro-5-methoxyphenyl)-2-hydroxyethyl]propanamide, having the formula: or a tautomeric form thereof, in a crystalline form which is from 50% to 100% crystalline.
Method of generating power and heat, employing: - a cogeneration system comprising: - a gas turbine generating power and combustion gases and - a heat recovery unit fed with water and heating said water by recovering the heat from the combustion gases coming from the gas turbine, - a neighbouring thermal power plant fed with water preheated by a degasifier, said degasifier being fed with cold water at a temperature at least 10°C below the temperature of the water feeding the heat recovery unit of the cogeneration system, and in which the cold water feeding the degasifier of the neighbouring thermal power plant, before being preheated by the degasifier, is preheated by heat exchange with the water feeding the heat recovery unit of the cogeneration system, with the degasifier using steam derived from the steam (8, 12) produced by the heat recovery unit of the cogeneration system or by the neighbouring thermal power plant. - a cogeneration system comprising: - a gas turbine generating power and combustion gases and - a heat recovery unit fed with water and heating said water by recovering the heat from the combustion gases coming from the gas turbine, - a neighbouring thermal power plant fed with water preheated by a degasifier, said degasifier being fed with cold water at a temperature at least 10°C below the temperature of the water feeding the heat recovery unit of the cogeneration system, and in which the cold water feeding the degasifier of the neighbouring thermal power plant, before being preheated by the degasifier, is preheated by heat exchange with the water feeding the heat recovery unit of the cogeneration system,
A method of operating a Network Element, NE, network node of a communication network, the network node being connected via the communication network to at least one user device, the method comprising: - receiving a request at the NE network node to carry out a MDT measurement for one of the at least one user device; - determining, at the NE network node, whether carrying out the MDT measurement or processing or reporting a result of the MDT measurement requires a user consent, based on data of a MDT privacy matrix, wherein each MDT measurement entry of the MDT privacy matrix comprises the following data units: - information specifying how the MDT measurement is to be carried out; and - information specifying how the collected data is intended to be used or processed; - determining, at the NE network node, whether a consent indicator which is assigned to the user device indicates allowance to carry out the MDT measurement, or indicates allowance of processing or reporting the result of the MDT measurement if the MDT privacy matrix indicates that a user consent is necessary; - carrying out the MDT measurement at the NE network node and/or processing the result of the MDT measurement and/or reporting the result of the MDT measurement to a further network node of the communication network if the consent indicator indicates that the MDT measurement can be carried out or the result of the MDT measurement can be processed or reported. - receiving a request at the NE network node to carry out a MDT measurement for one of the at least one user device; - determining, at the NE network node, whether carrying out the MDT measurement or processing or reporting a result of the MDT measurement requires a user consent, based on data of a MDT privacy matrix, wherein each MDT measurement entry of the MDT privacy matrix comprises the following data units: - information specifying how the MDT measurement is to be carried out; and - information specifying how the collected data is intended to be used or processed; - determining, at the NE network node, whether a consent indicator which is assigned to the user device indicates allowance to carry out the MDT measurement, or indicates allowance of processing or reporting the result of the MDT measurement if the MDT privacy matrix indicates that a user consent is necessary; - carrying out the MDT measurement at the NE network node and/or processing the result of the MDT measurement and/or reporting the result of the MDT measurement to a further network node of the communication network if the consent indicator indicates that the MDT measurement can be carried out or the result of the MDT measurement can be processed or reported.
An hardware accelerator device for use in generating a list of potential targets in a Constant False Alarm Rate, CFAR, radar system by processing radar data signals arranged in cells stored in a system memory, wherein a cell under test in said radar signals is identified as a potential target if the cell under test is a local peak over boundary cells and is higher than a certain threshold calculated (110, 112) by sorting range and velocity radar data signals arranged in windows, and said cells identified as a potential target are sorted in a sorted list of potential targets, the accelerator device including: - a double-buffering local memory for storing cell under test and boundary cell data; and - a first and a second sorting unit configured for performing concurrent sorting of said radar data signals arranged in windows and said cells identified as a potential target in pipeline with accesses (20, 22) to said system memory. - a double-buffering local memory for storing cell under test and boundary cell data; and - a first and a second sorting unit configured for performing concurrent sorting of said radar data signals arranged in windows and said cells identified as a potential target in pipeline with accesses (20, 22) to said system memory.
An in vitro process for making a conditioned acellular pro-tolerogenic preparation lacking components having an average molecular weight of more than 10 kDa and comprising miRNA species, said process comprising: (i) associating a low-immunogenic biocompatible polymer to a cytoplasmic membrane of a first leukocyte to obtain a first modified leukocyte; (ii) contacting the first modified leukocyte with a second leukocyte under conditions to allow a pro-tolerogenic allo-recognition to provide a conditioned preparation comprising miRNA species, wherein the first leukocyte is allogeneic to the second leukocyte; (iii) removing the first modified leukocyte, the second leukocyte and components having an average molecular weight of more than 10 kDa from the conditioned preparation under conditions to inhibit RNA degradation so as to increase the concentration but not the relative abundance of the miRNA species present in the conditioned preparation to obtain a composition enriched in miRNAs; and (iv) formulating the composition of step (iii), under conditions to inhibit RNA degradation and to maintain the relative abundance of each of the miRNA species, in the conditioned acellular pro-tolerogenic preparation for administration to a subject, wherein the low-immunogenic biocompatible polymer is polyethylene glycol, 2-alkyloxazoline or hyperbranched polyglycerol. (i) associating a low-immunogenic biocompatible polymer to a cytoplasmic membrane of a first leukocyte to obtain a first modified leukocyte; (ii) contacting the first modified leukocyte with a second leukocyte under conditions to allow a pro-tolerogenic allo-recognition to provide a conditioned preparation comprising miRNA species, wherein the first leukocyte is allogeneic to the second leukocyte; (iii) removing the first modified leukocyte, the second leukocyte and components having an average molecular weight of more than 10 kDa from the conditioned preparation under conditions to inhibit RNA degradation so as to increase the concentration but not the relative abundance of the miRNA species present in the conditioned preparation to obtain a composition enriched in miRNAs; and (iv) formulating the composition of step (iii), under conditions to inhibit RNA degradation and to maintain the relative abundance of each of the miRNA species, in the conditioned acellular pro-tolerogenic preparation for administration to a subject,
A sleeping bag comprising a top cover and a bottom sheet, wherein: (a) the bottom sheet is structurally arranged so as to be secured to a sleeping pad; (b) the bottom sheet includes a sheet portion and a pair of flexible opposing lateral flaps connected along corresponding medial edges thereof to the sheet portion so that, with the bottom sheet secured to the sleeping pad, the lateral flaps are positioned along corresponding opposite lateral edges of the sleeping pad; and (c) the top cover and the pair of lateral flaps are structurally arranged so as to enable attachment, detachment, and reattachment of each lateral flap along a corresponding lateral edge thereof to an outer surface of the top cover along a corresponding curved or linear attachment path displaced medially from a corresponding lateral edge of the top cover; characterised in that the bottom sheet includes a hood comprising a transverse hood segment and a pair of lateral hood segments and is attached to the sheet portion of the bottom sheet so that, with the sheet portion of the bottom sheet secured to the sleeping pad, (i) the transverse hood segment is positioned across a headward end of the sleeping pad, and (ii) the lateral hood segments are positioned along corresponding headward portions of corresponding opposite lateral edges of the sleeping pad, wherein, optionally, each lateral flap is integrally formed with a corresponding one of the lateral hood segments. (a) the bottom sheet is structurally arranged so as to be secured to a sleeping pad; (b) the bottom sheet includes a sheet portion and a pair of flexible opposing lateral flaps connected along corresponding medial edges thereof to the sheet portion so that, with the bottom sheet secured to the sleeping pad, the lateral flaps are positioned along corresponding opposite lateral edges of the sleeping pad; and (c) the top cover and the pair of lateral flaps are structurally arranged so as to enable attachment, detachment, and reattachment of each lateral flap along a corresponding lateral edge thereof to an outer surface of the top cover along a corresponding curved or linear attachment path displaced medially from a corresponding lateral edge of the top cover; characterised in that
A duct comprising the molded combination of: an inlet flange surrounding an inlet, the inlet having a height and a width; and a body extending from the inlet to an outlet, wherein: the duct comprises a proximal trunk and a plurality of distal branches (132A-132D); and a plurality of walls (134A-134C) divide the distal branches, each wall comprising at least one portion protruding upward from a bottom of the body and at least one portion protruding downward from a top of the body and meeting, wherein the body interior laterally outwardly diverges and upwardly shifts from the inlet toward the outlet; characterized in that: one or more of the walls (134A-134C) includes an interrupted portion wherein the wall protrudes upward from the bottom of the duct to a non-recessed location on the top of the duct; the duct is a twin-sheet thermoformed duct, and the interrupted portion is configured to be formed by locally having the wall formed by deformation of a lower sheet so that the lower sheet and an upper sheet fuse at a location locally coplanar with an upper wall; and the interrupted portion includes a mounting hole. an inlet flange surrounding an inlet, the inlet having a height and a width; and a body extending from the inlet to an outlet, wherein: the duct comprises a proximal trunk and a plurality of distal branches (132A-132D); and a plurality of walls (134A-134C) divide the distal branches, each wall comprising at least one portion protruding upward from a bottom of the body and at least one portion protruding downward from a top of the body and meeting, the duct comprises a proximal trunk and a plurality of distal branches (132A-132D); and a plurality of walls (134A-134C) divide the distal branches, each wall comprising at least one portion protruding upward from a bottom of the body and at least one portion protruding downward from a top of the body and meeting, wherein the body interior laterally outwardly diverges and upwardly shifts from the inlet toward the outlet; characterized in that: one or more of the walls (134A-134C) includes an interrupted portion wherein the wall protrudes upward from the bottom of the duct to a non-recessed location on the top of the duct; the duct is a twin-sheet thermoformed duct, and the interrupted portion is configured to be formed by locally having the wall formed by deformation of a lower sheet so that the lower sheet and an upper sheet fuse at a location locally coplanar with an upper wall; and the interrupted portion includes a mounting hole. one or more of the walls (134A-134C) includes an interrupted portion wherein the wall protrudes upward from the bottom of the duct to a non-recessed location on the top of the duct; the duct is a twin-sheet thermoformed duct, and the interrupted portion is configured to be formed by locally having the wall formed by deformation of a lower sheet so that the lower sheet and an upper sheet fuse at a location locally coplanar with an upper wall; and the interrupted portion includes a mounting hole.
A conjugated polymer containing isoindigo units, having the structural formula as follow: wherein, Ar is selected one from the group consisting of R 1 represents C 8 to C 20 alkyl; R 2 represents C 1 to C 12 alkyl; n represents an integer from 2 to 50. R 1 represents C 8 to C 20 alkyl; R 2 represents C 1 to C 12 alkyl; n represents an integer from 2 to 50.
A composition comprising: (a) a conductive polymer, (b) a resin having a solubility parameter of 18.4 to 24.5 MPa 1/2 [9.0 to 12.0 (cal/cm 3) 1/2], (c) a solvent, and (d) a phenolic compound, wherein the component (a) comprises one or more selected from the group consisting of polyaniline, polyaniline derivatives, polythiophene, polythiophene derivatives, polypyrrole and polypyrrole derivatives, the component (b) is a polyvinyl acetal resin, the amount of the component (b) is 0.1 to 25% by mass based on the amount of the component (a), and the phenolic compound is a compound represented by ArOH, wherein Ar is an aryl group or a substituted aryl group. (a) a conductive polymer, (b) a resin having a solubility parameter of 18.4 to 24.5 MPa 1/2 [9.0 to 12.0 (cal/cm 3) 1/2], (c) a solvent, and (d) a phenolic compound, wherein the component (a) comprises one or more selected from the group consisting of polyaniline, polyaniline derivatives, polythiophene, polythiophene derivatives, polypyrrole and polypyrrole derivatives, the component (b) is a polyvinyl acetal resin, the amount of the component (b) is 0.1 to 25% by mass based on the amount of the component (a), and the phenolic compound is a compound represented by ArOH, wherein Ar is an aryl group or a substituted aryl group.
A rechargeable lithium battery comprising: an electrode assembly comprising a positive electrode comprising a positive current collector, a first separator on the positive electrode, a negative electrode comprising a negative current collector on the first separator, and a second separator on the negative electrode, wherein the positive current collector and the negative current collector each having at least one respective uncoated regions (112, 122) at a side thereof, the first separator comprises a first substrate comprising a polyolefin-based resin, and a coating layer on a side of the first substrate, the coating layer being an inorganic layer comprising an inorganic material or an organic layer comprising an organic material, the second separator comprises a second substrate comprising a polyolefin-based resin; wherein the positive electrode, the first separator, the negative electrode, and the second separator are sequentially stacked and spirally wound from a central region of the electrode assembly to an outermost region of the electrode assembly; characterised in that the first separator has a lower shrinkage ratio than the second separator. an electrode assembly comprising a positive electrode comprising a positive current collector, a first separator on the positive electrode, a negative electrode comprising a negative current collector on the first separator, and a second separator on the negative electrode, wherein the positive current collector and the negative current collector each having at least one respective uncoated regions (112, 122) at a side thereof, the first separator comprises a first substrate comprising a polyolefin-based resin, and a coating layer on a side of the first substrate, the coating layer being an inorganic layer comprising an inorganic material or an organic layer comprising an organic material, the second separator comprises a second substrate comprising a polyolefin-based resin; wherein the positive electrode, the first separator, the negative electrode, and the second separator are sequentially stacked and spirally wound from a central region of the electrode assembly to an outermost region of the electrode assembly; characterised in that the first separator has a lower shrinkage ratio than the second separator.
A terminal comprising: a control section configured to control reception of a first synchronization signal, PSS, a second synchronization signal, SSS, and a broadcast channel, PBCH, in a predetermined block that is formed by a predetermined number of symbols and a predetermined number of subcarriers; and a receiving section configured to receive the PSS, the SSS and the PBCH that form the predetermined block, wherein the PSS and the SSS are located in a first frequency domain, wherein the PBCH is located in at least part of a second frequency domain that is broader than the first frequency domain, wherein the PBCH is located in at least part of a first predetermined domain neighboring the SSS in the frequency direction in the predetermined block and the PBCH is not located in a second predetermined domain neighboring the PSS in the frequency direction in the predetermined block, wherein the PBCH comprises a first part of the PBCH located in the second frequency domain in a symbol other than that for the PSS and the SSS; and a second part of the PBCH located in at least part of the first predetermined domain in a symbol that is the same as that for the SSS, and wherein the PBCH is not located in a symbol that is the same as that for the PSS. a control section configured to control reception of a first synchronization signal, PSS, a second synchronization signal, SSS, and a broadcast channel, PBCH, in a predetermined block that is formed by a predetermined number of symbols and a predetermined number of subcarriers; and a receiving section configured to receive the PSS, the SSS and the PBCH that form the predetermined block, wherein the PSS and the SSS are located in a first frequency domain, wherein the PBCH is located in at least part of a second frequency domain that is broader than the first frequency domain, wherein the PBCH is located in at least part of a first predetermined domain neighboring the SSS in the frequency direction in the predetermined block and the PBCH is not located in a second predetermined domain neighboring the PSS in the frequency direction in the predetermined block, wherein the PBCH comprises a first part of the PBCH located in the second frequency domain in a symbol other than that for the PSS and the SSS; and a second part of the PBCH located in at least part of the first predetermined domain in a symbol that is the same as that for the SSS, and wherein the PBCH is not located in a symbol that is the same as that for the PSS.
An apparatus enabled to selectively choose a baud rate for communication of optical data, the apparatus comprising: a modem adapted to switch between different QAM encoding formats, wherein the modem is enabled to operate with an optical signal modulated at a plurality of finely tuned baud rates, wherein the plurality of finely tuned baud rates refers to baud rates with a relative increase of baud-rate from one baud-rate to the next being smaller than 10%, wherein the modem is adapted to increase the baud rate when switching from a lower order QAM encoding format to a higher order QAM encoding format. a modem adapted to switch between different QAM encoding formats, wherein the modem is enabled to operate with an optical signal modulated at a plurality of finely tuned baud rates, wherein the plurality of finely tuned baud rates refers to baud rates with a relative increase of baud-rate from one baud-rate to the next being smaller than 10%, wherein the modem is adapted to increase the baud rate when switching from a lower order QAM encoding format to a higher order QAM encoding format.
A control method for an accelerator including a plurality of deflection electromagnets configured to generate a magnetic field that causes charged particles to revolve in a main accelerator in accordance with an acceleration energy of the charged particles and a power supply configured to supply a current that generates the magnetic field to the deflection electromagnets based on a current-value instruction signal, the method comprising: providing a flat region that makes a current value of the deflection electromagnet constant to correspond to a predetermined energy for extracting the charged particles in the current-value instruction signal in a case of an acceleration cycle involving emission of the charged particles to a beam transport system; not providing the flat region in the current-value instruction signal in a case of an acceleration cycle not involving emission of the charged particles to the beam transport system; and smoothing time change of a current value of the deflection electromagnet in a transition of the current value to the flat region or a transition from the flat region; determining a time required for the smoothing based on a predetermined energy for extracting the charged particles or a difference between energies before and after change to the predetermined extraction energy. providing a flat region that makes a current value of the deflection electromagnet constant to correspond to a predetermined energy for extracting the charged particles in the current-value instruction signal in a case of an acceleration cycle involving emission of the charged particles to a beam transport system; not providing the flat region in the current-value instruction signal in a case of an acceleration cycle not involving emission of the charged particles to the beam transport system; and smoothing time change of a current value of the deflection electromagnet in a transition of the current value to the flat region or a transition from the flat region; determining a time required for the smoothing based on a predetermined energy for extracting the charged particles or a difference between energies before and after change to the predetermined extraction energy.