mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor apparatus comprising: first and second power transistors (SWb, SWa) connected in parallel to each other; a first resistor connected to a first control terminal of the first power transistor; and a first diode connected in parallel to the first resistor, wherein in the first diode, a direction toward the first control terminal of the first power transistor is a forward direction, a second control terminal of the second power transistor and the first control terminal of the first power transistor are adapted to be commonly controlled, the first control terminal of the first power transistor is connected with both one end of the first resistor and one end of the first diode, a first mounting region on which a semiconductor chip is mounted, the semiconductor chip including the first power transistor, the first resistor, a first gate terminal connected via the first resistor to the first control terminal, and a second gate terminal directly connected to the first control terminal; a second mounting region connected to the first gate terminal and connected to the second gate terminal via a third mounting region, the second mounting region being adapted to be supplied with a control signal for the first control terminal; and the one end of the first diode is mounted on the third mounting region and another end of the first diode is mounted on the second mounting region. first and second power transistors (SWb, SWa) connected in parallel to each other; a first resistor connected to a first control terminal of the first power transistor; and a first diode connected in parallel to the first resistor, wherein in the first diode, a direction toward the first control terminal of the first power transistor is a forward direction, a second control terminal of the second power transistor and the first control terminal of the first power transistor are adapted to be commonly controlled, the first control terminal of the first power transistor is connected with both one end of the first resistor and one end of the first diode, a first mounting region on which a semiconductor chip is mounted, the semiconductor chip including the first power transistor, the first resistor, a first gate terminal connected via the first resistor to the first control terminal, and a second gate terminal directly connected to the first control terminal; a second mounting region connected to the first gate terminal and connected to the second gate terminal via a third mounting region, the second mounting region being adapted to be supplied with a control signal for the first control terminal; and the one end of the first diode is mounted on the third mounting region and another end of the first diode is mounted on the second mounting region.
A proinflammatory cytokine that binds to the TNF receptor TNFR1 and/or TNFR2 for use in permeabilising vasculature of a CNS tumour with an intact blood brain barrier for treating, detecting or diagnosing said tumour by allowing improved access of an anti-cancer agent or a signal generating agent to said tumour by disrupting the integrity of the blood brain barrier of said tumour wherein said proinflammatory cytokine is formulated for systemic administration to said patient.
A method of imaging metabolic function in a target area of an organism using contrast magnetic resonance imaging, the method comprising the steps of: i) generating baseline imaging data of the target area of the organism; ii) administering oxygen to said organism whilst magnetic resonance imaging is carried out, wherein the administration of oxygen is continued for a period sufficient to convert all deoxyhaemoglobin in the plasma in the target area to oxyhaemoglobin which generates a positive imaging signal, and thereafter continued to the intent that the deoxyhaemoglobin is saturated such that administered oxygen remains free in the plasma and generates a negative imaging signal; iii) generating imaging data in response to said administration of oxygen; iv) processing said imaging data to obtain data relating to the relative amounts of deoxyhaemoglobin and free oxygen present in said target area following administration of the oxygen, and correlating said data to the metabolic function of the target area. i) generating baseline imaging data of the target area of the organism; ii) administering oxygen to said organism whilst magnetic resonance imaging is carried out, wherein the administration of oxygen is continued for a period sufficient to convert all deoxyhaemoglobin in the plasma in the target area to oxyhaemoglobin which generates a positive imaging signal, and thereafter continued to the intent that the deoxyhaemoglobin is saturated such that administered oxygen remains free in the plasma and generates a negative imaging signal; iii) generating imaging data in response to said administration of oxygen; iv) processing said imaging data to obtain data relating to the relative amounts of deoxyhaemoglobin and free oxygen present in said target area following administration of the oxygen, and correlating said data to the metabolic function of the target area.
A composition comprising: A DNA aptamer comprising an oligonucleotide having the sequence 5'-GGXGGXXGGXTGGG-3' (SEQ ID NO: 1) or a salt thereof, wherein the aptamer inhibits sclerostin preferably, the aptamer has from about 14 to about 50 nucleotide repeat units; preferably, the aptamer is conjugated with one or more selected from deoxythymidine nucleotide, inverted thymidine and polyethylene glycol; preferably, the aptamer is an oligonucleotide having a backbone formed of deoxyribose-phosphate linkages; preferably, the aptamer is an oligonucleotide having one or more deoxyribose-phosphate linkages stabilized by one or more selected from a thioester linkage and an amide linkage; preferably, the aptamer has a parallel G-quadruplex structure. A DNA aptamer comprising an oligonucleotide having the sequence 5'-GGXGGXXGGXTGGG-3' (SEQ ID NO: 1) or a salt thereof, wherein the aptamer inhibits sclerostin preferably, the aptamer has from about 14 to about 50 nucleotide repeat units; preferably, the aptamer is conjugated with one or more selected from deoxythymidine nucleotide, inverted thymidine and polyethylene glycol; preferably, the aptamer is an oligonucleotide having a backbone formed of deoxyribose-phosphate linkages; preferably, the aptamer is an oligonucleotide having one or more deoxyribose-phosphate linkages stabilized by one or more selected from a thioester linkage and an amide linkage; preferably, the aptamer has a parallel G-quadruplex structure.
A tire, comprising: a tread portion provided with at least one circumferentially and continuously extending shoulder main groove and at least one circumferentially and continuously extending crown main groove; the at least one crown main groove extending in a straight manner in a tire circumferential direction; the at least one shoulder main groove comprising narrow segments inclined at angles with respect to the tire circumferential direction and wide segments each having axial width (W1b) greater than axial widths (W1a) of the narrow segments, the narrow segments and the wide segments being arranged alternately in the tire circumferential direction so as to form a zigzag groove shape, characterized in that the axial widths (W1a) of the narrow segments are in a range of from 5% to 7% of a tread width and the at least one shoulder main groove comprising a pair of shoulder main grooves to form adjacent first and second crown portions (5A, 5B) through the at least one crown main groove therebetween, the first crown portion being provided with lateral grooves extending across the first crown portion, the second crown portion being provided with lug grooves extending from the at least one crown main groove and terminating in ends positioned within the second crown portion, and the respective lug grooves being shifted from the respective lateral grooves in the tire's circumferential direction. a tread portion provided with at least one circumferentially and continuously extending shoulder main groove and at least one circumferentially and continuously extending crown main groove; the at least one crown main groove extending in a straight manner in a tire circumferential direction; the at least one shoulder main groove comprising narrow segments inclined at angles with respect to the tire circumferential direction and wide segments each having axial width (W1b) greater than axial widths (W1a) of the narrow segments, the narrow segments and the wide segments being arranged alternately in the tire circumferential direction so as to form a zigzag groove shape, characterized in that the axial widths (W1a) of the narrow segments are in a range of from 5% to 7% of a tread width and the at least one shoulder main groove comprising a pair of shoulder main grooves to form adjacent first and second crown portions (5A, 5B) through the at least one crown main groove therebetween, the first crown portion being provided with lateral grooves extending across the first crown portion, the second crown portion being provided with lug grooves extending from the at least one crown main groove and terminating in ends positioned within the second crown portion, and the respective lug grooves being shifted from the respective lateral grooves in the tire's circumferential direction.
Method for locating a terminal equipped with a security module, which terminal is connected to a cellular telecommunications network and situated in a current cell, said terminal storing, in said security module, an identifier (CELL_ID T) of the current cell and at least one identifier (CELL_ID T-1; CELL_ID T-2; CELL_ID T-3) of a previous cell in which the terminal was previously situated; said method including steps, implemented by a processing server (SERV) connected to said network, of: - receiving said identifiers received from the terminal via the communication network; - estimating an item of information on the location of the terminal on the basis of location coordinates that are associated with at least one previous cell identified by an identifier stored in the terminal, without using location coordinates of the current cell. - receiving said identifiers received from the terminal via the communication network; - estimating an item of information on the location of the terminal on the basis of location coordinates that are associated with at least one previous cell identified by an identifier stored in the terminal, without using location coordinates of the current cell.
A method for determining a disease severity index value in a patient, the method comprising: (a) obtaining one or more liver function test values in a patient having or at risk of a chronic liver disease, wherein the one or more liver function test values are obtained from one or more liver function tests selected from the group consisting of SHUNT, portal hepatic filtration rate (portal HFR), and systemic hepatic filtration rate (systemic HFR); (b) employing a disease severity index equation (DSI equation) to obtain a DSI value in the patient, wherein the DSI equation comprises DSI = A SHUNT + B log e portal HFR + C log e systemic HFR + D wherein SHUNT is SHUNT test value in the patient (%); portal HFR is portal hepatic filtration rate test value in the patient as mL/min/kg, wherein kg is body weight of the patient; systemic HFR is systemic HFR value in the patient as mL/min/kg, wherein kg is body weight of the patient; A is a SHUNT coefficient; B is a Portal HFR coefficient; C is a Systemic HFR coefficient; and D is the constant; and (c) comparing the DSI value in the patient to one or more DSI cut-off values, one or more normal healthy controls, or one or more DSI values within the patient over time. (a) obtaining one or more liver function test values in a patient having or at risk of a chronic liver disease, wherein the one or more liver function test values are obtained from one or more liver function tests selected from the group consisting of SHUNT, portal hepatic filtration rate (portal HFR), and systemic hepatic filtration rate (systemic HFR); (b) employing a disease severity index equation (DSI equation) to obtain a DSI value in the patient, wherein the DSI equation comprises DSI = A SHUNT + B log e portal HFR + C log e systemic HFR + D wherein SHUNT is SHUNT test value in the patient (%); portal HFR is portal hepatic filtration rate test value in the patient as mL/min/kg, wherein kg is body weight of the patient; systemic HFR is systemic HFR value in the patient as mL/min/kg, wherein kg is body weight of the patient; A is a SHUNT coefficient; B is a Portal HFR coefficient; C is a Systemic HFR coefficient; and D is the constant; and (c) comparing the DSI value in the patient to one or more DSI cut-off values, one or more normal healthy controls, or one or more DSI values within the patient over time. SHUNT is SHUNT test value in the patient (%); portal HFR is portal hepatic filtration rate test value in the patient as mL/min/kg, wherein kg is body weight of the patient; systemic HFR is systemic HFR value in the patient as mL/min/kg, wherein kg is body weight of the patient; A is a SHUNT coefficient; B is a Portal HFR coefficient; C is a Systemic HFR coefficient; and D is the constant; and (c) comparing the DSI value in the patient to one or more DSI cut-off values, one or more normal healthy controls, or one or more DSI values within the patient over time.
A method of wireless communication performed by a low-cost user equipment, UE, wherein the low cost UE is a Machine Type Communication, MTC, UE, an enhanced Machine Type Communication, eMTC, UE, or an Internet of Things, IoT, UE, the method comprising: receiving a transmission of a synchronization signal block in at least one first resource, wherein the synchronization signal block comprises at least one of a broadcast channel or a synchronization signal; and receiving at least one repetition of at least a part of the synchronization signal block in at least one second resource, wherein the at least one second resource is included in a slot with the synchronization signal block, and wherein the at least one second resource is a configured resource; wherein a synchronization signal burst set periodicity of the synchronization signal block for the low-cost UE is configurable and is shorter than a synchronization signal burst set periodicity for a non-low-cost UE, wherein the non-low-cost UE is a UE that is not an MTC UE, an eMTC UE or an IoT UE. receiving a transmission of a synchronization signal block in at least one first resource, wherein the synchronization signal block comprises at least one of a broadcast channel or a synchronization signal; and receiving at least one repetition of at least a part of the synchronization signal block in at least one second resource, wherein the at least one second resource is included in a slot with the synchronization signal block, and wherein the at least one second resource is a configured resource; wherein a synchronization signal burst set periodicity of the synchronization signal block for the low-cost UE is configurable and is shorter than a synchronization signal burst set periodicity for a non-low-cost UE, wherein the non-low-cost UE is a UE that is not an MTC UE, an eMTC UE or an IoT UE.
Method for imaging at least one three-dimensional component that is produced by means of a generative production method, comprising the following steps: - detecting at least two slice images of the component, during the production thereof by selective laser melting and/or selective laser sintering, by means of a detection device which is designed to record, in a spatially resolved manner, a measurement variable that characterizes an energy input into the component, wherein the detection device is located outside of the beam path of a laser of the production device and wherein at least one slice image is assembled from 100 to 1000 frames or assembled from frames which each depict between 0.1 cm 2 and 1.0 cm 2 of the component layer and which each depict a width of between 0.1 mm and 0.5 mm of the component layer, wherein an exposure time for each frame is set at between 1.0 ms and 5000 ms; - generating a three-dimensional image of the component by means of a computing device on the basis of the detected slice images which depict the entire component and/or a used installation space of the generative production method in an overlap-free manner; and - displaying the image by means of a display device. - detecting at least two slice images of the component, during the production thereof by selective laser melting and/or selective laser sintering, by means of a detection device which is designed to record, in a spatially resolved manner, a measurement variable that characterizes an energy input into the component, wherein the detection device is located outside of the beam path of a laser of the production device and wherein at least one slice image is assembled from 100 to 1000 frames or assembled from frames which each depict between 0.1 cm 2 and 1.0 cm 2 of the component layer and which each depict a width of between 0.1 mm and 0.5 mm of the component layer, wherein an exposure time for each frame is set at between 1.0 ms and 5000 ms; - generating a three-dimensional image of the component by means of a computing device on the basis of the detected slice images which depict the entire component and/or a used installation space of the generative production method in an overlap-free manner; and - displaying the image by means of a display device.
A method of making a dental blank from a quantity of ceramic particles, comprising the steps of: - compacting a first zone of the quantity of ceramic particles; - compacting a second zone of the quantity of ceramic particles; wherein the first and second zones have different compaction factors in at least one stage during compacting the first and second zones, and wherein the compaction of the first and second zones can be independently controlled. - compacting a first zone of the quantity of ceramic particles; - compacting a second zone of the quantity of ceramic particles;
A shape-memory material comprising a composition, comprising - at least one curable structural adhesive and - at least one chemically crosslinked elastomer based on a silane-functional polymer. - at least one curable structural adhesive and - at least one chemically crosslinked elastomer based on a silane-functional polymer.
A flooring comprising a waterproof backing layer, a high-density fiberboard layer, a primer layer made using a two-solution type resin containing 30 to 70% by weight of aqueous acrylic urethane to which 1 to 5% by weight of an inorganic pigment is added, a transfer-printed layer formed using a general-purpose polyethylene terephthalate transfer paper, and a surface coating layer laminated in this order from the bottom.
A group of at least one cluster and at least one device in a datacenter, wherein: • the cluster comprises a plurality of vertically stacked housings, each housing being configured to house one device, the cluster comprising at least one controlling module and at least one bus connected to the controlling module, the bus comprising one data and power line and one ground line both extending vertically continuously along the cluster, the data and power line and the ground line extending in an elementary motif identically repeated for each housing. • the device comprises at least one electronic tag configured to store an identifier (Id) of said device and forming together with the controlling module and the bus a device identification system, the electronic tag being fixed on the external surface of the device in a way to come in physical contact with both the data and power line and the ground line, when the device is housed in any housing of the cluster, so as to automatically connect the bus, and • the controlling module is configured to read the identifier (Id), when the electronic tag is connected to the bus, so as to identify the device housed in the cluster. • the cluster comprises a plurality of vertically stacked housings, each housing being configured to house one device, the cluster comprising at least one controlling module and at least one bus connected to the controlling module, the bus comprising one data and power line and one ground line both extending vertically continuously along the cluster, the data and power line and the ground line extending in an elementary motif identically repeated for each housing. • the device comprises at least one electronic tag configured to store an identifier (Id) of said device and forming together with the controlling module and the bus a device identification system, the electronic tag being fixed on the external surface of the device in a way to come in physical contact with both the data and power line and the ground line, when the device is housed in any housing of the cluster, so as to automatically connect the bus, and • the controlling module is configured to read the identifier (Id), when the electronic tag is connected to the bus, so as to identify the device housed in the cluster.
Adapter for mounting single-pole or multi-pole overvoltage protection devices designed as plug-in modules on a wiring carrier, wherein the adapter comprises a base and at least one chamber that is open to the top and delimited by side walls, from the lower surface of which a plurality of mounting protrusions extend, each comprising a contour which is substantially complementary to corresponding openings in the wiring carrier, characterized in that the mounting protrusions have a hook shape (61; 61) so as to reach below the adapter after inserting the adapter with the mounting protrusions in the openings by displacing the same in the plane of the wiring carrier, wherein breakthroughs are formed in the base, the dimensions of which enable plug connections of the plug-in module to be passed through to the wiring carrier, said adapter being moreover adapted to enable a self-locking arrest of the association of adapter, plug-in module and wiring carrier together with the electrical contacts, in that metallized recesses of the wiring carrier can be disposed to be located congruent to the breakthroughs in accordance with the dimensions of the plug connections after the adapter has been inserted and displaced.
A positive electrode active material for a secondary battery, comprising: a core; a shell located to surround the core; and a buffer layer located between the core and the shell, and including a three-dimensional network structure connecting the core and the shell and a pore, wherein the core, the shell and the three-dimensional network structure in the buffer layer each independently include a lithium composite metal oxide, and the positive electrode active material has a BET specific surface area of 0.2 m 2 /g to 0.5 m 2 /g, a porosity of 30 vol% or less, and an average particle size (D 50) of 8 μm to 15 μm. a core; a shell located to surround the core; and a buffer layer located between the core and the shell, and including a three-dimensional network structure connecting the core and the shell and a pore, wherein the core, the shell and the three-dimensional network structure in the buffer layer each independently include a lithium composite metal oxide, and the positive electrode active material has a BET specific surface area of 0.2 m 2 /g to 0.5 m 2 /g, a porosity of 30 vol% or less, and an average particle size (D 50) of 8 μm to 15 μm.