mhurhangee/ep-ind-claims huggingface dataset:
A method for removing artifacts from an EM field generator from a rotational 3D scan, comprising the steps of: preoperatively, characterizing the artifacts from the EM field generator over a range of rotational positions of an x-ray source and detector; intraoperatively, determining the position of the EM field generator relative to the x-ray source and detector; and removing the preoperatively characterized artifacts for the determined relative position of the EM field generator from a current x-ray image. preoperatively, characterizing the artifacts from the EM field generator over a range of rotational positions of an x-ray source and detector; intraoperatively, determining the position of the EM field generator relative to the x-ray source and detector; and removing the preoperatively characterized artifacts for the determined relative position of the EM field generator from a current x-ray image.
A controller for controlling two or more groups of nozzles in an array, the controller configured to: encode data blocks into a data stream, wherein each data block denotes how a respective group of nozzles is to be controlled for a droplet period; and encode fire codes into the data stream, wherein each fire code is a reserved code that denotes when a respective group of nozzles is to be controlled in accordance with the data block for the droplet period; wherein the data block precedes the fire code for the respective group of nozzles in the data stream and wherein the fire codes are generated independently of the data blocks. encode data blocks into a data stream, wherein each data block denotes how a respective group of nozzles is to be controlled for a droplet period; and encode fire codes into the data stream, wherein each fire code is a reserved code that denotes when a respective group of nozzles is to be controlled in accordance with the data block for the droplet period; wherein the data block precedes the fire code for the respective group of nozzles in the data stream and wherein the fire codes are generated independently of the data blocks.
A metal alloy characterized in that it consists of the following elements, in percent by weight, on the total weight of the alloy: Niobium (Nb): 1-4% Hafnium (Hf): 0-0.5% Chromium (Cr): 27-29% Nickel (Ni): 1-5% Carbon: 0.3-0.45% Tantalum (Ta): 0-2% Titanium (Ti): 0-2% Iron (Fe): 1-3% Manganese (Mn): less than 0,5% Silicon (Si): less than 0,3% Zirconium (Zr): less than 0.2% the remainder being cobalt (Co) and unavoidable impurities. Niobium (Nb): 1-4% Hafnium (Hf): 0-0.5% Chromium (Cr): 27-29% Nickel (Ni): 1-5% Carbon: 0.3-0.45% Tantalum (Ta): 0-2% Titanium (Ti): 0-2% Iron (Fe): 1-3% Manganese (Mn): less than 0,5% Silicon (Si): less than 0,3% Zirconium (Zr): less than 0.2% the remainder being cobalt (Co) and unavoidable impurities.
A one way isolator (20, 100) to transfer torque between a flexible drive means and a device, comprising: a hub (24, 104) for mounting to the input shaft of the device, the hub including at least one stop member (72, 140); a sheave (40, 120) rotatably mounted to the hub (24, 104) and including at least one stop member (80, 148); a spring (36, 116) having a first end engaging the hub (24, 104) and a second end engaging the sheave (40, 120) to elastically couple the hub and sheave; wherein the at least one stop member (72, 140) of the hub (24, 104) abuts the at least one stop member (80, 148) of the sheave (40, 120) when torque is transferred in a first direction from the hub (24, 104) to the flexible drive means such that the torque is substantially transferred through the engagement of the respective stop members and, when torque is transferred from the flexible drive to the hub (24, 104) in an opposite direction, the sheave (40, 120) rotates with respect to the hub (24, 104) such that the at least one stop member (72, 140) of the hub (24, 104) disengages the at least one stop member (80, 148) of the sheave (40, 120) and the torque is elastically transferred through the spring (36, 116), characterized in that the sheave (40, 120) is rotatably mounted to the hub (24, 104) by at least one bearing (64, 132). a hub (24, 104) for mounting to the input shaft of the device, the hub including at least one stop member (72, 140); a sheave (40, 120) rotatably mounted to the hub (24, 104) and including at least one stop member (80, 148); a spring (36, 116) having a first end engaging the hub (24, 104) and a second end engaging the sheave (40, 120) to elastically couple the hub and sheave; wherein the at least one stop member (72, 140) of the hub (24, 104) abuts the at least one stop member (80, 148) of the sheave (40, 120) when torque is transferred in a first direction from the hub (24, 104) to the flexible drive means such that the torque is substantially transferred through the engagement of the respective stop members and, when torque is transferred from the flexible drive to the hub (24, 104) in an opposite direction, the sheave (40, 120) rotates with respect to the hub (24, 104) such that the at least one stop member (72, 140) of the hub (24, 104) disengages the at least one stop member (80, 148) of the sheave (40, 120) and the torque is elastically transferred through the spring (36, 116), characterized in that the sheave (40, 120) is rotatably mounted to the hub (24, 104) by at least one bearing (64, 132).
A heating installation comprising: - a first circuit containing a medium; - a first heat pump, which has an input side connected to the first circuit and which is configured to heat a medium by absorbing heat energy from the medium in the first circuit; - a thermal energy store connected to the first circuit in order to allow heat exchange between the thermal energy store and the medium in the first circuit; - a second circuit containing a medium; and - a cooling circuit containing a medium, wherein the heating installation further comprises: - a second heat pump, which has an input side connected to the second circuit and which is configured to heat a medium by absorbing heat energy from the medium in the second circuit; - a first heat exchanger, which has a first side connected to said cooling circuit and a second side connected to the first circuit and which is configured to transfer heat from the medium in the cooling circuit to the medium in the first circuit; and - a second heat exchanger, which has a first side connected to the cooling circuit and a second side connected to the second circuit and which is configured to transfer heat from the medium in the cooling circuit to the medium in the second circuit. - a first circuit containing a medium; - a first heat pump, which has an input side connected to the first circuit and which is configured to heat a medium by absorbing heat energy from the medium in the first circuit; - a thermal energy store connected to the first circuit in order to allow heat exchange between the thermal energy store and the medium in the first circuit; - a second circuit containing a medium; and - a cooling circuit containing a medium, - a second heat pump, which has an input side connected to the second circuit and which is configured to heat a medium by absorbing heat energy from the medium in the second circuit; - a first heat exchanger, which has a first side connected to said cooling circuit and a second side connected to the first circuit and which is configured to transfer heat from the medium in the cooling circuit to the medium in the first circuit; and - a second heat exchanger, which has a first side connected to the cooling circuit and a second side connected to the second circuit and which is configured to transfer heat from the medium in the cooling circuit to the medium in the second circuit.
Use of highly compressed pellets of a cohesive material with a bulk density of more than 2t/m 3 in combination with an inert gap filler for manufacturing sealing constructions.
A handle for use with a surgical instrument system, said handle comprising: a first handle housing portion comprising at least a first output rotatable about a first longitudinal axis; a second handle housing portion, comprising: at least a first electric motor comprising a first rotatable motor shaft; at least a first actuator for operating said first electric motor; and an articulation joint, wherein said second handle housing portion is rotatably connected to said first handle housing portion about said articulation joint, and wherein said second handle housing portion is rotatable between a first grip position and a second grip position, wherein said articulation joint is a hinge, said first grip position is a pistol grip position and said second grip position is an in-line grip position; at least a first transmission configured to transmit motion between said first motor shaft and said first output, wherein said first transmission is a flexible transmission. a first handle housing portion comprising at least a first output rotatable about a first longitudinal axis; a second handle housing portion, comprising: at least a first electric motor comprising a first rotatable motor shaft; at least a first actuator for operating said first electric motor; and at least a first electric motor comprising a first rotatable motor shaft; at least a first actuator for operating said first electric motor; and an articulation joint, wherein said second handle housing portion is rotatably connected to said first handle housing portion about said articulation joint, and wherein said second handle housing portion is rotatable between a first grip position and a second grip position, wherein said articulation joint is a hinge, said first grip position is a pistol grip position and said second grip position is an in-line grip position; at least a first transmission configured to transmit motion between said first motor shaft and said first output, wherein said first transmission is a flexible transmission.
A method of forming a powder metal forging, the method comprising: providing a preform including a sintered powder metal composition, the preform having a first end section and a second end section that create a shoulder on the preform; inserting the preform in at least one part of a die set having a top die and a bottom die, at least one of the top die and the bottom die defining a helical forge form therewithin; closing the die set such that the top die is contacting the bottom die and the shoulder on the preform is positioned below the top die; and thereafter compressing the preform in the forge form using an upper punch and a lower punch resulting in a formed part having a helical outer surface. providing a preform including a sintered powder metal composition, the preform having a first end section and a second end section that create a shoulder on the preform; inserting the preform in at least one part of a die set having a top die and a bottom die, at least one of the top die and the bottom die defining a helical forge form therewithin; closing the die set such that the top die is contacting the bottom die and the shoulder on the preform is positioned below the top die; and thereafter compressing the preform in the forge form using an upper punch and a lower punch resulting in a formed part having a helical outer surface.
A detector for a dark-field and/or phase-contrast interferometric imaging system, the detector comprising: - a plurality of pixels; - a plurality of first detector arrays; - a plurality of second detector arrays; and - a processing unit; wherein, the plurality of pixels are arranged in a two-dimensional pattern; wherein, each pixel comprises a first detector array and a second detector array; wherein, each first detector array comprises a plurality of fingers; wherein, each second detector array comprises a plurality of fingers; wherein, for each pixel the fingers of the first detector array are interleaved alternately with the fingers of the second detector array; wherein, for each pixel interaction with an incident X-ray photon can lead to charge generation in at least one finger of the first detector array of that pixel and can lead to charge generation in at least one finger of the second detector array of that pixel; wherein, for each pixel the first detector array is configured to detect a cumulative charge associated with the plurality of fingers of the first detector array and the second detector array is configured to detect a cumulative charge associated with the plurality of fingers of the second detector array; characterized in that for each pixel the processing unit is configured to assign an X-ray interaction event to either the first detector array or the second detector array on the basis of the detector array that has the highest cumulative charge. - a plurality of pixels; - a plurality of first detector arrays; - a plurality of second detector arrays; and - a processing unit; wherein, the plurality of pixels are arranged in a two-dimensional pattern; wherein, each pixel comprises a first detector array and a second detector array; wherein, each first detector array comprises a plurality of fingers; wherein, each second detector array comprises a plurality of fingers; wherein, for each pixel the fingers of the first detector array are interleaved alternately with the fingers of the second detector array; wherein, for each pixel interaction with an incident X-ray photon can lead to charge generation in at least one finger of the first detector array of that pixel and can lead to charge generation in at least one finger of the second detector array of that pixel; wherein, for each pixel the first detector array is configured to detect a cumulative charge associated with the plurality of fingers of the first detector array and the second detector array is configured to detect a cumulative charge associated with the plurality of fingers of the second detector array; characterized in that for each pixel the processing unit is configured to assign an X-ray interaction event to either the first detector array or the second detector array on the basis of the detector array that has the highest cumulative charge.
A tricyclo-DNA-antisense oligonucleotide complementary to a nucleic acid sequence of COL7A1 gene that is necessary for correct splicing of one or more exons which encode amino acid sequence of type VII collagen implicated in dysfunction of a mutated type VII collagen, wherein said exons are exon 80 of the COL7A1 gene and wherein the tricyclo-DNA-antisense oligonucleotide is selected from the group consisting of sequences SEQ ID NO: 6 and SEQ ID NO: 7
A method for wireless communications performed by a base station, BS, comprising: receiving a physical random access channel, PRACH, signal from a first user equipment, UE, on a first narrowband region comprising one to six resource blocks, RBs, within a wider uplink, UL, system bandwidth; determining a first search space (1032, 1034), in which to transmit a random access response, RAR, message, based at least in part on the coverage enhancement, CE, level of the UE; and transmitting, in response to the PRACH signal, the RAR message in the first search space, which is in a second narrowband region comprising one to six RBs within a wider downlink, DL, system bandwidth, in at least a first subframe. receiving a physical random access channel, PRACH, signal from a first user equipment, UE, on a first narrowband region comprising one to six resource blocks, RBs, within a wider uplink, UL, system bandwidth; determining a first search space (1032, 1034), in which to transmit a random access response, RAR, message, based at least in part on the coverage enhancement, CE, level of the UE; and transmitting, in response to the PRACH signal, the RAR message in the first search space, which is in a second narrowband region comprising one to six RBs within a wider downlink, DL, system bandwidth, in at least a first subframe.
A method comprising: growing a plurality of III-nitride semiconductor structures on a substrate (12,14), wherein: each semiconductor structure comprises a light emitting layer disposed between an n-type region and a p-type region; the substrate comprises a host, a plurality of islands of III-nitride material separated by trenches, and a bonding layer disposed between the host and the plurality of islands of III-nitride material; and the light emitting layer of each semiconductor structure has an a-lattice constant greater than 3.19 angstroms; and forming a conductive material (27,46,54,58) that electrically connects two of the III-nitride semiconductor structures. each semiconductor structure comprises a light emitting layer disposed between an n-type region and a p-type region; the substrate comprises a host, a plurality of islands of III-nitride material separated by trenches, and a bonding layer disposed between the host and the plurality of islands of III-nitride material; and the light emitting layer of each semiconductor structure has an a-lattice constant greater than 3.19 angstroms; and forming a conductive material (27,46,54,58) that electrically connects two of the III-nitride semiconductor structures.
Composition comprising leucine, isoleucine, valine, threonine and lysine for use in the treatment of chronic obstructive pulmonary disease in a subject, particularly but not exclusively an elderly subject.
A curable mixture comprising: (a) a first curable composition comprising a (meth)acrylate copolymer having at least two pendant (meth)acryloyl groups, the (meth)acrylate copolymer having a weight average molecular weight in a range of 35,000 to 300,000 Daltons, determined by gel permeation chromatography as described in the examples in the description; and a free radical photoinitiator that is sensitive to actinic radiation of a first wavelength; and (b) a second curable composition comprising an epoxy resin; a polyether polyol; and a photo-acid generator that is sensitive to actinic radiation of a second wavelength and that is not sensitive to actinic radiation of the first wavelength. (a) a first curable composition comprising a (meth)acrylate copolymer having at least two pendant (meth)acryloyl groups, the (meth)acrylate copolymer having a weight average molecular weight in a range of 35,000 to 300,000 Daltons, determined by gel permeation chromatography as described in the examples in the description; and a free radical photoinitiator that is sensitive to actinic radiation of a first wavelength; and a (meth)acrylate copolymer having at least two pendant (meth)acryloyl groups, the (meth)acrylate copolymer having a weight average molecular weight in a range of 35,000 to 300,000 Daltons, determined by gel permeation chromatography as described in the examples in the description; and a free radical photoinitiator that is sensitive to actinic radiation of a first wavelength; and (b) a second curable composition comprising an epoxy resin; a polyether polyol; and a photo-acid generator that is sensitive to actinic radiation of a second wavelength and that is not sensitive to actinic radiation of the first wavelength. an epoxy resin; a polyether polyol; and a photo-acid generator that is sensitive to actinic radiation of a second wavelength and that is not sensitive to actinic radiation of the first wavelength.
A liquefied gas filling station and liquefied gas production station, having: - a first circuit with a liquefied gas tank supplied with gas in the gaseous state by a gas supply line, - a second circuit for coolant fluid fluidically independent of the first circuit with means making it possible to compress this fluid and to expand it, the second circuit being a closed circuit, and - an exchanger (14, 114) for exchanging heat between the first circuit and the second circuit, in which heat exchanger the fluid from the second circuit flows in a first direction after expansion of the fluid from the second circuit, and the gas from the first circuit flows in a second direction, this gas entering the exchanger in the gaseous state and leaving it in the liquid state, the heat exchange being performed upstream of the tank, characterized in that it further comprises: - means making it possible to determine the level of liquefied gas in the tank, - a device for measuring the temperature in the first circuit, downstream of the exchanger (14, 114) and upstream of the tank, - additional means (30, 32) for varying the pressure of the fluid within the second fluid circuit, and - a command and control system acting on the means (30, 32) to vary the pressure in the second circuit based on the temperature measured by the temperature measuring device and based on the level of liquefied gas in the tank. - a first circuit with a liquefied gas tank supplied with gas in the gaseous state by a gas supply line, - a second circuit for coolant fluid fluidically independent of the first circuit with means making it possible to compress this fluid and to expand it, the second circuit being a closed circuit, and - an exchanger (14, 114) for exchanging heat between the first circuit and the second circuit, in which heat exchanger the fluid from the second circuit flows in a first direction after expansion of the fluid from the second circuit, and the gas from the first circuit flows in a second direction, this gas entering the exchanger in the gaseous state and leaving it in the liquid state, the heat exchange being performed upstream of the tank, - means making it possible to determine the level of liquefied gas in the tank, - a device for measuring the temperature in the first circuit, downstream of the exchanger (14, 114) and upstream of the tank, - additional means (30, 32) for varying the pressure of the fluid within the second fluid circuit, and - a command and control system acting on the means (30, 32) to vary the pressure in the second circuit based on the temperature measured by the temperature measuring device and based on the level of liquefied gas in the tank.
A method for determining channel loss, comprising: receiving first information that is from a first user equipment UE according to a transmission type of the first information, wherein the first information is a random access preamble, wherein the transmission type of the first information comprises a first repeating factor indicating repetition times for coverage enhancement of the random access preamble in an enhanced random access opportunity, wherein the transmission type of the first information corresponds to a rank of a channel loss extent, and the enhanced random access opportunity embodies a time and/or frequency resource location of the repeated random access preamble, wherein the channel loss comprises reference signal received power; and determining the rank of the channel loss extent of the first UE according to the first information, comprising: determining the rank of the channel loss extent of the first UE according to the correspondence between the transmission type of the first information and the rank of the channel loss extent. receiving first information that is from a first user equipment UE according to a transmission type of the first information, wherein the first information is a random access preamble, wherein the transmission type of the first information comprises a first repeating factor indicating repetition times for coverage enhancement of the random access preamble in an enhanced random access opportunity, wherein the transmission type of the first information corresponds to a rank of a channel loss extent, and the enhanced random access opportunity embodies a time and/or frequency resource location of the repeated random access preamble, wherein the channel loss comprises reference signal received power; and determining the rank of the channel loss extent of the first UE according to the first information, comprising: determining the rank of the channel loss extent of the first UE according to the correspondence between the transmission type of the first information and the rank of the channel loss extent.
An anti-neuropilin-1 antibody or antigen-binding fragment thereof that inhibits the interaction between (i) a class IV transmembrane semaphorin expressed on a cell and (ii) neuropilin-1 on a regulatory T cell, for use in a method of treating cancer in a subject.