mhurhangee/ep-ind-claims huggingface dataset:
An ultrasonic diagnostic apparatus comprising: an elastic volume data generating unit configured to generate elastic volume data by collecting plural sets of elastic frame data obtained by swinging a scan plane of an ultrasonic signal to be transmitted to an object to be examined in the direction which is orthogonal to the scan plane; and a 3-dimensional elastic image constructing unit configured to construct a 3-dimensional elastic image on the basis of the elastic volume data generated by the elastic volume data generating unit, wherein the elastic volume data generating unit creates synthetic elastic frame data by synthesizing the plural sets of elastic frame data that are adjacent in the swing direction, and generates the elastic volume data on the basis of the synthetic elastic frame data, or stores plural sets of the elastic volume data, generates synthetic elastic frame data based on the plural sets of elastic frame data in the corresponding swing-angle positions among the stored plural sets of elastic volume data, and generates elastic volume data on the basis of the generated synthetic elastic frame data, characterized in that the elastic volume data generating unit determines the adequacy of image quality in each set of the elastic frame data, removes the elastic frame data of which the image quality is determined as inadequate, and synthesizes the synthetic elastic frame data. an elastic volume data generating unit configured to generate elastic volume data by collecting plural sets of elastic frame data obtained by swinging a scan plane of an ultrasonic signal to be transmitted to an object to be examined in the direction which is orthogonal to the scan plane; and a 3-dimensional elastic image constructing unit configured to construct a 3-dimensional elastic image on the basis of the elastic volume data generated by the elastic volume data generating unit, wherein the elastic volume data generating unit creates synthetic elastic frame data by synthesizing the plural sets of elastic frame data that are adjacent in the swing direction, and generates the elastic volume data on the basis of the synthetic elastic frame data, or stores plural sets of the elastic volume data, generates synthetic elastic frame data based on the plural sets of elastic frame data in the corresponding swing-angle positions among the stored plural sets of elastic volume data, and generates elastic volume data on the basis of the generated synthetic elastic frame data, characterized in that the elastic volume data generating unit determines the adequacy of image quality in each set of the elastic frame data, removes the elastic frame data of which the image quality is determined as inadequate, and synthesizes the synthetic elastic frame data.
A resource mapping method, wherein the method comprises: generating, by a network device, control information, wherein the network device communicates with a terminal device using a downlink transmission resource, wherein the downlink transmission resource is divided into a control region assigned to control channels and a data region assigned to data channels, wherein the control information is used to indicate the following information: at least one bandwidth region in which at least one frequency domain resource unit is located, wherein the at least one frequency domain resource unit is a scheduling unit of a frequency domain resource, is in the control region of the downlink transmission resource, and is used when the network device and a terminal device transmit a data channel, and wherein an operating bandwidth of the terminal device comprises a plurality of evenly spaced bandwidth regions, and the at least one bandwidth region is one or more of the plurality of bandwidth regions, a granularity of the at least one frequency domain resource unit, wherein the granularity of the at least one frequency domain resource unit is corresponding to a granularity of a resource unit used, when the network device and the terminal device transmit a control channel in the control region of the downlink transmission resource, and a location of the at least one frequency domain resource unit in the bandwidth region; and sending, by the network device, the control information to the terminal device, whereby the data channel reuses an idle frequency domain resource in the control region of the downlink transmission resource for data transmission. at least one bandwidth region in which at least one frequency domain resource unit is located, wherein the at least one frequency domain resource unit is a scheduling unit of a frequency domain resource, is in the control region of the downlink transmission resource, and is used when the network device and a terminal device transmit a data channel, and wherein an operating bandwidth of the terminal device comprises a plurality of evenly spaced bandwidth regions, and the at least one bandwidth region is one or more of the plurality of bandwidth regions, a granularity of the at least one frequency domain resource unit, wherein the granularity of the at least one frequency domain resource unit is corresponding to a granularity of a resource unit used, when the network device and the terminal device transmit a control channel in the control region of the downlink transmission resource, and a location of the at least one frequency domain resource unit in the bandwidth region; and sending, by the network device, the control information to the terminal device, whereby the data channel reuses an idle frequency domain resource in the control region of the downlink transmission resource for data transmission.
An apparatus for crystal growth, the apparatus comprising: a source chamber configured to contain a source material; a growth chamber; a passage for transport of vapour from the source chamber to the growth chamber; a support provided within the growth chamber and configured to support a seed crystal; and a gap defined between the growth chamber and the support; wherein the coefficient of thermal expansion of the support is greater than the coefficient of thermal expansion of the growth chamber, and wherein the materials and dimensions of the support and growth chamber are selected so that the gap between the support and growth chamber is defined for an operational temperature, to provide a flow restriction function at that operational temperature. a source chamber configured to contain a source material; a growth chamber; a passage for transport of vapour from the source chamber to the growth chamber; a support provided within the growth chamber and configured to support a seed crystal; and a gap defined between the growth chamber and the support; wherein the coefficient of thermal expansion of the support is greater than the coefficient of thermal expansion of the growth chamber, and wherein the materials and dimensions of the support and growth chamber are selected so that the gap between the support and growth chamber is defined for an operational temperature, to provide a flow restriction function at that operational temperature.
A method for purifying biogas, comprising in this order the steps of: providing a first adsorber unit comprising a first sorbent material comprising carbonaceous char; removing moisture from the biogas by a moisture separator; contacting the first sorbent material with the biogas to adsorb organic impurities and H 2 S and thereby form a first effluent; separating, by a pressure swing adsorption unit, carbon dioxide and biomethane from the first effluent; providing a second adsorber unit comprising a second sorbent material comprising carbonaceous char, wherein the second sorbent material is fresh sorbent material; flushing the second sorbent material with carbon dioxide separated from the first effluent to produce a flushed sorbent before introducing the biogas into the second adsorber unit, diverting the biogas to the second adsorber unit; contacting the second sorbent material with the biogas to adsorb organic impurities and H 2 S and thereby form a second effluent; separating, by the pressure swing adsorption unit, carbon dioxide and biomethane from the second effluent; flushing the first sorbent material with carbon dioxide separated from the second effluent to produce a flushed sorbent; flaring methane and volatile organics displaced by flushing the first sorbent material; replacing the first sorbent material with fresh sorbent material comprising carbonaceous char; and flushing the fresh sorbent material with carbon dioxide separated from the second effluent. providing a first adsorber unit comprising a first sorbent material comprising carbonaceous char; removing moisture from the biogas by a moisture separator; contacting the first sorbent material with the biogas to adsorb organic impurities and H 2 S and thereby form a first effluent; separating, by a pressure swing adsorption unit, carbon dioxide and biomethane from the first effluent; providing a second adsorber unit comprising a second sorbent material comprising carbonaceous char, wherein the second sorbent material is fresh sorbent material; flushing the second sorbent material with carbon dioxide separated from the first effluent to produce a flushed sorbent before introducing the biogas into the second adsorber unit, diverting the biogas to the second adsorber unit; contacting the second sorbent material with the biogas to adsorb organic impurities and H 2 S and thereby form a second effluent; separating, by the pressure swing adsorption unit, carbon dioxide and biomethane from the second effluent; flushing the first sorbent material with carbon dioxide separated from the second effluent to produce a flushed sorbent; flaring methane and volatile organics displaced by flushing the first sorbent material; replacing the first sorbent material with fresh sorbent material comprising carbonaceous char; and flushing the fresh sorbent material with carbon dioxide separated from the second effluent.
A lifting bracket comprising - a point of suspension realised to attach a load (2, 42) to be lifted to a lifting means; - a lifting angle adjusting means realised to adjust the position of the point of suspension on the lifting bracket according to a specific lifting angle (α); and - a coupling means for rigidly coupling the lifting bracket to the load (2, 42) to be lifted; wherein - the coupling means comprises a lifting bracket extension realised for coupling with the load (2, 42) to be lifted such that the lifting bracket extension and the load (2, 42) to be lifted share a common longitudinal axis (L; and - the coupling means rigidly couples the lifting bracket to the load to be lifted, so that the load to be lifted and the lifting bracket essentially act as a single entity, which allows the lifting angle of the load to be maintained during the lifting procedure; characterized in that - the coupling means is realised to engage with a securing means of a lifting bracket transport frame for transporting the lifting bracket. - a point of suspension realised to attach a load (2, 42) to be lifted to a lifting means; - a lifting angle adjusting means realised to adjust the position of the point of suspension on the lifting bracket according to a specific lifting angle (α); and - a coupling means for rigidly coupling the lifting bracket to the load (2, 42) to be lifted; wherein - the coupling means comprises a lifting bracket extension realised for coupling with the load (2, 42) to be lifted such that the lifting bracket extension and the load (2, 42) to be lifted share a common longitudinal axis (L; and - the coupling means rigidly couples the lifting bracket to the load to be lifted, so that the load to be lifted and the lifting bracket essentially act as a single entity, which allows the lifting angle of the load to be maintained during the lifting procedure; characterized in that - the coupling means is realised to engage with a securing means of a lifting bracket transport frame for transporting the lifting bracket.
Ladder having a rising part which has two rails and rungs or steps arranged between the rails, and having a first, straight crossbar, wherein at a lower end of the rising part a guide is provided in which the first crossbar is arranged to be displaceable in its longitudinal direction, characterised in that the guide has at least one rotatable roller.
A multiple gear range transmission comprising an input shaft, an output shaft and at least one bridging shaft, each carrying a plurality of drive members (18a, 18b, 18c, 20a, 20b 1, 20b 2, 20c, 22a, 22b 1, 22b 2, 22c); wherein the bridging shaft is not connected to a torque input or output; wherein drive members (18b, 20b 1, 20b 2, 22b 1, 22b 2) on the bridging shaft operatively cooperate with those carried on either the input shaft (18a, 20a, 22a) and/or output shaft (18c, 20c, 22c) so as to transfer load between the input shaft and the output shaft via a plurality of selectable load paths corresponding to a plurality of respective resultant gear ratios grouped in at least two gear ranges; wherein each shaft (12, 14, 16) has one or more drive members (18a, 18b, 18c, 20a, 20c, 22a, 22b 1, 22b 2, 22c) capable of being selectively rotationally fixed to the shaft (12, 14, 16); wherein successive gear ratios up or down a gear range are selectable without interruption of torque transmission, using load paths that include different respective drive members (18a, 18c, 20a, 20c, 22a, 22c) from one of either the input or output shafts; wherein successive gear ranges are selectable without interruption of torque transmission, using load paths that include different respective drive members (18a, 18c, 20a, 20c, 22a, 22c) from the other of either the input or output shafts; and, wherein a transition from a selected gear at the top or bottom of a selected gear range to the next available gear in the next available gear range involves selection of a new load path comprising drive members (18a, 18c, 20a, 20c, 22a, 22c) from the input and output shaft that are not involved in the load path for the currently selected gear.
A laminated steel plate, comprising: a core layer including a wire group formed in a mesh form using wires, holes surrounded by the wires and a resin sheet; and steel plates joined respectively to both faces of the core layer, wherein the wires have a tensile strength of 601 MPa or higher, an opening of the meshed wire group, which is defined by a long side of a rectangle having maximum area and internally touching a hole, is equal to or less than ten times the thickness of the steel plates, and the wires are metallic, inorganic or organic wires. a core layer including a wire group formed in a mesh form using wires, holes surrounded by the wires and a resin sheet; and steel plates joined respectively to both faces of the core layer, wherein the wires have a tensile strength of 601 MPa or higher, an opening of the meshed wire group, which is defined by a long side of a rectangle having maximum area and internally touching a hole, is equal to or less than ten times the thickness of the steel plates, and the wires are metallic, inorganic or organic wires.
A double stranded RNAi agent for use in preventing at least one symptom in, or in treating, a human subject having a disorder that would benefit from reduction in Serpinc1 expression, wherein the double stranded RNAi agent is to be administered to the subject as a fixed dose of about 40 mg to about 90 mg, wherein the double stranded RNAi agent comprises a sense strand and an antisense strand, the antisense strand comprising a region of complementarity which comprises at least 15 contiguous nucleotides differing by no more than 3 nucleotides from the nucleotide sequence of 5'-UUGAAGUAAAUGGUGUUAACCAG-3' (SEQ ID NO: 15), wherein substantially all of the nucleotides of the sense strand and substantially all of the nucleotides of the antisense strand are modified nucleotides, and wherein the sense strand is conjugated to a ligand attached at the 3' end. wherein the double stranded RNAi agent is to be administered to the subject as a fixed dose of about 40 mg to about 90 mg, wherein the double stranded RNAi agent comprises a sense strand and an antisense strand, the antisense strand comprising a region of complementarity which comprises at least 15 contiguous nucleotides differing by no more than 3 nucleotides from the nucleotide sequence of 5'-UUGAAGUAAAUGGUGUUAACCAG-3' (SEQ ID NO: 15), wherein substantially all of the nucleotides of the sense strand and substantially all of the nucleotides of the antisense strand are modified nucleotides, and wherein the sense strand is conjugated to a ligand attached at the 3' end.
A mobile communication system comprising: a first radio base station (eNB #1) configured to manage a first cell; and a second radio base station (eNB #10) configured to manage a second cell, wherein the first radio base station (eNB #1) and the second radio base station (eNB #10) are configured to transmit a handover instruction signal to a mobile station connected to the first cell, in the first cell and the second cell, respectively, when a handover of the mobile station to the second cell is performed, the first radio base station (eNB #1) is configured to transmit scheduling information concerning the handover instruction signal through a physical downlink control channel, and the second radio base station (eNB #10) is configured to transmit scheduling information concerning the handover instruction signal through an enhanced physical downlink control channel. a first radio base station (eNB #1) configured to manage a first cell; and a second radio base station (eNB #10) configured to manage a second cell, wherein the first radio base station (eNB #1) and the second radio base station (eNB #10) are configured to transmit a handover instruction signal to a mobile station connected to the first cell, in the first cell and the second cell, respectively, when a handover of the mobile station to the second cell is performed, the first radio base station (eNB #1) is configured to transmit scheduling information concerning the handover instruction signal through a physical downlink control channel, and the second radio base station (eNB #10) is configured to transmit scheduling information concerning the handover instruction signal through an enhanced physical downlink control channel.
A security paper for manufacturing value documents, such as banknotes, identity documents or deeds, with a planar substrate, which is equipped at least partly with a dirt-repellent, antimicrobial coating (3, 4), characterized in that the coating (3, 4) has at least a first antimicrobial agent and a second antimicrobial agent and a third antimicrobial agent, wherein the first antimicrobial agent is 1,2-benzisothiazol-3 -one, the second antimicrobial agent contains silver and the third antimicrobial agent contains silver and is different from the second antimicrobial agent.
An organic light emitting diode display device, comprising: an organic light emitting diode display panel, comprising: a first substrate; a second substrate; a first electrode disposed between the first substrate and the second substrate; an organic light emitting layer disposed between the first electrode and the second substrate; and a second electrode disposed between the organic light emitting layer and the second substrate, the second electrode comprising a first portion and a second portion, the first portion is located between the second portion and the first substrate, characterized in that: the first portion comprises alkaline earth element and silver, the second portion comprises alkaline earth element and silver, and a ratio of the alkaline earth element to silver of the first portion is different from a ratio of the alkaline earth element to silver of the second portion. an organic light emitting diode display panel, comprising: a first substrate; a second substrate; a first electrode disposed between the first substrate and the second substrate; an organic light emitting layer disposed between the first electrode and the second substrate; and a second electrode disposed between the organic light emitting layer and the second substrate, the second electrode comprising a first portion and a second portion, the first portion is located between the second portion and the first substrate, a first substrate; a second substrate; a first electrode disposed between the first substrate and the second substrate; an organic light emitting layer disposed between the first electrode and the second substrate; and a second electrode disposed between the organic light emitting layer and the second substrate, the second electrode comprising a first portion and a second portion, the first portion is located between the second portion and the first substrate, characterized in that: the first portion comprises alkaline earth element and silver, the second portion comprises alkaline earth element and silver, and a ratio of the alkaline earth element to silver of the first portion is different from a ratio of the alkaline earth element to silver of the second portion.
A LIDAR system for an aerial vehicle operating in a degraded visual environment, the LIDAR system comprising: a laser source configured to emit a coherent light beam; a spatial light modulator to modulate said coherent light beam, wherein the spatial light modulator is configured to phase conjugate an interference pattern of a DVE medium (112, 231) that is positioned between said spatial light modulator and a target; an optical lens to filter said coherent light beam from the spatial light modulator, wherein the optical lens is configured to direct the coherent light beam toward the target, wherein the coherent light beam reflects off of the DVE medium (112, 231) to yield scattered photons and reflects off of the target to yield reflected photons; a second optical lens to collect the scattered photons and the reflected photons; and a detector array to detect the scattered photons and the reflected photons, wherein the LIDAR system is configured to iteratively scan a plurality of conjugates to identify a current scattering property of said DVE medium (112, 231), wherein the step for iteratively scanning the plurality of conjugates uses a Fienup reconstruction technique, and wherein the LIDAR system is configured to probe at successively longer presumed ranges until a predetermined time for a scan exceeds a decorrelation time of said DVE medium (112, 231) at a presumed distance. a laser source configured to emit a coherent light beam; a spatial light modulator to modulate said coherent light beam, wherein the spatial light modulator is configured to phase conjugate an interference pattern of a DVE medium (112, 231) that is positioned between said spatial light modulator and a target; an optical lens to filter said coherent light beam from the spatial light modulator, wherein the optical lens is configured to direct the coherent light beam toward the target, wherein the coherent light beam reflects off of the DVE medium (112, 231) to yield scattered photons and reflects off of the target to yield reflected photons; a second optical lens to collect the scattered photons and the reflected photons; and a detector array to detect the scattered photons and the reflected photons, wherein the LIDAR system is configured to iteratively scan a plurality of conjugates to identify a current scattering property of said DVE medium (112, 231), wherein the step for iteratively scanning the plurality of conjugates uses a Fienup reconstruction technique, and wherein the LIDAR system is configured to probe at successively longer presumed ranges until a predetermined time for a scan exceeds a decorrelation time of said DVE medium (112, 231) at a presumed distance.