mhurhangee/ep-ind-claims huggingface dataset:
A method for uplink power control by a user equipment, UE, in adaptively configured Time Division Duplex, TDD, communication system, the method comprising: receiving configuration information indicating a first set and a second set of parameter values; receiving Downlink Control Information, DCI, format scheduling transmission of a Physical Uplink Shared Channel, PUSCH, the DCI format comprises a field including a field value; determining a transmission power using the first set or the second set of parameter values based on the field value; and transmitting the PUSCH with the determined transmission power, wherein the method further comprises: receiving a configuration for two accumulation states of transmit power control, TPC, command values; and receiving a TPC command field value in the DCI format; wherein one of the two accumulation states is used for computing the transmission power for the PUSCH transmission based on the field value. receiving configuration information indicating a first set and a second set of parameter values; receiving Downlink Control Information, DCI, format scheduling transmission of a Physical Uplink Shared Channel, PUSCH, the DCI format comprises a field including a field value; determining a transmission power using the first set or the second set of parameter values based on the field value; and transmitting the PUSCH with the determined transmission power, wherein the method further comprises: receiving a configuration for two accumulation states of transmit power control, TPC, command values; and receiving a TPC command field value in the DCI format; receiving a configuration for two accumulation states of transmit power control, TPC, command values; and receiving a TPC command field value in the DCI format; wherein one of the two accumulation states is used for computing the transmission power for the PUSCH transmission based on the field value.
A method for 2D seismic data acquisition, the method comprising: a) determining source-point seismic survey positions for a combined deep profile seismic data acquisition, optimized for a deep geological section, with a shallow profile seismic data acquisition, optimized for a shallow geological section, wherein the source-point positions are based on non-uniform sampling, wherein an optimization loop is used to determine the locations of sources and receivers for a non-uniform design using an algorithm for searching the space of possible solutions and a cost function to determine the optimized locations; b) obtaining a seismic dataset acquired with a first set of air-guns optimized for a deep-data seismic profile and acquired with a second set of air-guns optimized for a shallow-data seismic profile wherein the first set of air-guns has a first encoded source signature and the second set of air guns has a second encoded source signature, different from the first; and c) de-blending the seismic dataset acquired with the first and second set of air-guns to obtain a deep 2D seismic dataset and a shallow 2D seismic dataset. a) determining source-point seismic survey positions for a combined deep profile seismic data acquisition, optimized for a deep geological section, with a shallow profile seismic data acquisition, optimized for a shallow geological section, wherein the source-point positions are based on non-uniform sampling, wherein an optimization loop is used to determine the locations of sources and receivers for a non-uniform design using an algorithm for searching the space of possible solutions and a cost function to determine the optimized locations; b) obtaining a seismic dataset acquired with a first set of air-guns optimized for a deep-data seismic profile and acquired with a second set of air-guns optimized for a shallow-data seismic profile wherein the first set of air-guns has a first encoded source signature and the second set of air guns has a second encoded source signature, different from the first; and c) de-blending the seismic dataset acquired with the first and second set of air-guns to obtain a deep 2D seismic dataset and a shallow 2D seismic dataset.
A power reception guidance device that is adapted to provide guidance pertaining to a non-contact power supply from a power supply unit installed in a parking area to a power receiving unit installed in a vehicle, comprising: a field intensity detection unit that is adapted to detect a field intensity of the power receiving unit, characterized by a power receiving efficiency specifying unit that is adapted to specify a power receiving efficiency of the power receiving unit at a current position of the vehicle when a parking operation is started based on a comparison of the field intensity detected by the field intensity detection unit and a maximum field intensity generated by the power supply unit; and a guidance control unit that is adapted to output through an output unit (62, 63) the power receiving efficiency specified by the power receiving efficiency specifying unit and a current remaining capacity of a battery of the vehicle. a field intensity detection unit that is adapted to detect a field intensity of the power receiving unit, characterized by a power receiving efficiency specifying unit that is adapted to specify a power receiving efficiency of the power receiving unit at a current position of the vehicle when a parking operation is started based on a comparison of the field intensity detected by the field intensity detection unit and a maximum field intensity generated by the power supply unit; and a guidance control unit that is adapted to output through an output unit (62, 63) the power receiving efficiency specified by the power receiving efficiency specifying unit and a current remaining capacity of a battery of the vehicle.
Redundant cooling device for an electric submarine drive motor, with a first cooling circuit and a second cooling circuit, by means of which thermal energy can be transported away from the electric submarine drive motor, characterized in that the coolant of the first cooling circuit and the coolant of the second cooling circuit flow in counter-current through a stator cooling ring, in which the cooling circuits (2, 3) are arranged, of the electric submarine drive motor in the region of the electric submarine drive motor.
An improved wind turbine comprising: a wind turbine wheel having a hub, a rim and a cable extending between the hub and the rim; a set of airfoils (40, 80) rotatably carried by the cable and disposed between the hub and the rim; characterized by, a cinch attached to the cable and disposed between adjacent airfoils (40, 80); an upturned section included in at least one airfoil in the set of airfoils (40, 80) and disposed at a trailing edge of the airfoil wherein each airfoil (40, 80) has a different angle of attack relative to an adjacent airfoil (40, 80); and, a generator having a generator wheel configured to engage the rim and disposed below the rim. a wind turbine wheel having a hub, a rim and a cable extending between the hub and the rim; a set of airfoils (40, 80) rotatably carried by the cable and disposed between the hub and the rim; characterized by, a cinch attached to the cable and disposed between adjacent airfoils (40, 80); an upturned section included in at least one airfoil in the set of airfoils (40, 80) and disposed at a trailing edge of the airfoil wherein each airfoil (40, 80) has a different angle of attack relative to an adjacent airfoil (40, 80); and, a generator having a generator wheel configured to engage the rim and disposed below the rim.
A cladding device for sound insulation, in particular in cabins in the area of housings of a vehicle, a machine tool or the like, consisting of a support plate and an insulating panel, which are connected to one another over their surface and whose contour is adapted to the respective geometry of the cabin, characterized in that the support plate and the insulating panel are separated in pairs in the form of an assembly and that each of the assemblies is locked to adjacent assemblies in the manner of a plug-in system, in that the respective plug-in system consists of plug-in pins and receiving openings, which can be connected to one another, and in that the plug-in pins are integrally formed on the support plate so as to project from the insulating panel that is mounted thereto, in that the receiving openings are incorporated in one of the adjacent support plates, and in that the receiving openings are covered by the insulating panels adjacent thereto, in that the plug-in pins and the respective receiving openings to be connected thereto have an interlocking contour in the manner of an undercut, and in that the support plate is made of a polyurethane soft foam and the insulating panel is made of a heavy insulating foil on the basis of a POE/LDPE with inorganic fillers and that the connection between the respective support plate and the insulating panel takes place in a two-part moulding tool (5, 6) during the deformation.
A composition comprising gluconolactone and a therapeutically effective amount of a dipeptide derivative of formula: R 1 -AAB-AAC-R 2 Formula or an isomer or salt thereof, and optionally a pharmaceutically or cosmetically acceptable carrier, wherein R 1 is an acyl radical having up to 19 carbon atoms; AAB is Tyr and AAC is Tyr, or AAB is Val and AAC is Ala; R 2 is OR 3, NHR 4, or NHNHR 5; R 3 is H, an alkyl, aralkyl, or aryl radical having up to 19 carbon atoms; and R 4 or R 5 is independently H, OH, an alkyl, aralkyl, or aryl radical having up to 19 carbon atoms. or an isomer or salt thereof, and optionally a pharmaceutically or cosmetically acceptable carrier, wherein R 1 is an acyl radical having up to 19 carbon atoms; AAB is Tyr and AAC is Tyr, or AAB is Val and AAC is Ala; R 2 is OR 3, NHR 4, or NHNHR 5; R 3 is H, an alkyl, aralkyl, or aryl radical having up to 19 carbon atoms; and R 4 or R 5 is independently H, OH, an alkyl, aralkyl, or aryl radical having up to 19 carbon atoms.
An epoxy solder paste comprising an epoxy flux and an alloy, the epoxy flux including: 20 to 40 % by weight organic high-boiling solvent; 5 to 15 % by weight multi-functional type epoxy resin; 15 to 30 % by weight epoxy resin with high molecular weight; 15 to 30 % by weight phenolic group containing hardening agent; 2 to 6 % by weight anhydride based liquid hardener; 10 to 20 % by weight carboxylic acid as an activator; 2 to 8 % by weight substituted aromatic amine as catalyst; 1 to 5 % by weight phosphine based salt as catalyst; 0.1 to 2 % by weight amide based catalyst; 0.1 to 2 % by weight bonding agent; and 0.1 to 4 % by weight liquid type stress modifier, the alloy including: 30 to 65 % by weight bismuth; at least one selected from the group consisting of silver, gold, chromium, indium, phosphorus, copper, cobalt, germanium, manganese, nickel, zinc, titanium, gallium, iron, antimony, aluminium, tellurium, selenium, calcium, vanadium, molybdenum, platinum, and magnesium; and balance tin, together with unavoidable impurities. 20 to 40 % by weight organic high-boiling solvent; 5 to 15 % by weight multi-functional type epoxy resin; 15 to 30 % by weight epoxy resin with high molecular weight; 15 to 30 % by weight phenolic group containing hardening agent; 2 to 6 % by weight anhydride based liquid hardener; 10 to 20 % by weight carboxylic acid as an activator; 2 to 8 % by weight substituted aromatic amine as catalyst; 1 to 5 % by weight phosphine based salt as catalyst; 0.1 to 2 % by weight amide based catalyst; 0.1 to 2 % by weight bonding agent; and 0.1 to 4 % by weight liquid type stress modifier, the alloy including: 30 to 65 % by weight bismuth; at least one selected from the group consisting of silver, gold, chromium, indium, phosphorus, copper, cobalt, germanium, manganese, nickel, zinc, titanium, gallium, iron, antimony, aluminium, tellurium, selenium, calcium, vanadium, molybdenum, platinum, and magnesium; and balance tin, together with unavoidable impurities. 30 to 65 % by weight bismuth; at least one selected from the group consisting of silver, gold, chromium, indium, phosphorus, copper, cobalt, germanium, manganese, nickel, zinc, titanium, gallium, iron, antimony, aluminium, tellurium, selenium, calcium, vanadium, molybdenum, platinum, and magnesium; and balance tin, together with unavoidable impurities.
Display assembly for a plurality of thread-like products sold by length, comprising at least one display module provided with a plurality of reels of said thread-like products and having a dispensing path for each thread-like product whereon a counting device (10, 100) is installed, apt to measure the length of thread-like product which runs therethrough, said counting device comprising a counting drum (121, 221) mounted in rotation on a support carriage (120, 220), characterised in that said counting device further comprises an oscillating lever (122, 222), mounted tilting opposite said counting drum (121, 221) and provided with at least one pressure counterroller (123, 223, 124, 224) apt to push said thread-like product in contact coupling with said counting drum (121, 221) when the lever is biased into a closed/working position by elastic means, said lever being able to switch from said closed/working position to an open/non-working position overcoming the bias of said elastic means, detection means of the rotation of said counting drum (121, 221) apt to issue a measuring signal proportional to the rotation of the drum (121, 221) to a logical processing unit interfaced with a viewing device and a printing unit, said logical processing unit calculating the length of dispensed thread-like product based on said measuring signal received at least for the period of time wherein said tilting lever (122, 222) is continuously in said closed/working position.
An electrode catalyst for fuel cells, comprising a carbon material having a ratio of a peak intensity I A derived from an amorphous structure to a peak intensity I G derived from a graphite structure in an X-ray diffraction spectrum (ratio I A /I G) of 0.90 or less as a catalyst-supporting carrier and characterized in that the carbon material has a ratio of a D-band peak intensity to a G-band peak intensity in a Raman spectrum (ratio D/G) of 1.50 to 1.68, the ratios measured by the methods of the description.
A method for transmitting, by a user equipment, UE,, uplink data in a wireless communication system including a plurality of cells, the method comprising, at the UE: receiving, from a first base station, BS,, cell group information and first assignment information regarding a first semi-persistent scheduling, SPS, resource; if the UE moves from a cell supported by the first BS to a cell supported by the second BS, maintaining a radio resource control, RRC, connection with the first BS; and transmitting, to a second BS, a first uplink signal on the first SPS resource, wherein the cell group information indicates that the first BS and the second BS are included in a same cell group, wherein the first assignment information is commonly used for the first BS and the second BS belonging to the same cell group, and wherein the first uplink signal is transmitted in a state where no RRC connection is set up between the UE and the second BS. receiving, from a first base station, BS,, cell group information and first assignment information regarding a first semi-persistent scheduling, SPS, resource; if the UE moves from a cell supported by the first BS to a cell supported by the second BS, maintaining a radio resource control, RRC, connection with the first BS; and transmitting, to a second BS, a first uplink signal on the first SPS resource, wherein the cell group information indicates that the first BS and the second BS are included in a same cell group, wherein the first assignment information is commonly used for the first BS and the second BS belonging to the same cell group, and wherein the first uplink signal is transmitted in a state where no RRC connection is set up between the UE and the second BS.
An electrical charge measuring system, comprising a capacitance detector connected to a charge integrator being an operational amplifier having an input stage and a capacitance (Cf) feedback connected between the output of the charge integrator and the input of the charge integrator, characterised in that the input stage of the charge integrator comprises a pair of symmetrically connected JFET-type transistors (T1; T2), wherein: - the gates of both JFET-type transistors (T1, T2) are connected to the input of the charge integrator; - the sources of the symmetrically connected JFET-type transistors (T1, T2) are each connected to the ground via parallel connection of a resistor (R3, R4) and capacitor (C1, C2) which is connected in series with a parallel connection of a key (K1; K2) and a current source (I1, I2); - wherein the drains of the symmetrically connected JFET-type transistors (T1, T2) are each connected to symmetrically connected common base amplifiers comprising bipolar transistors (T3, T4), and to current sources (R1, R2), so that the first JFET-type transistor and the interconnected first bipolar transistor are powered by a first common current source and that the second JFET-type transistor and the interconnected second bipolar transistor are powered by a second common current source; - and wherein the electrical charge measuring system further comprises an output voltage evaluation system configured to evaluate the output voltage of the charge integrator and to discharge the feedback capacitance (Cf) by opening one of the keys after the output voltage exceeds the upper voltage limit (Uh) and by opening the other key when the output voltage drops below the lower voltage limit (Ui). - the gates of both JFET-type transistors (T1, T2) are connected to the input of the charge integrator; - the sources of the symmetrically connected JFET-type transistors (T1, T2) are each connected to the ground via parallel connection of a resistor (R3, R4) and capacitor (C1, C2) which is connected in series with a parallel connection of a key (K1; K2) and a current source (I1, I2); - wherein the drains of the symmetrically connected JFET-type transistors (T1, T2) are each connected to symmetrically connected common base amplifiers comprising bipolar transistors (T3, T4), and to current sources (R1, R2), so that the first JFET-type transistor and the interconnected first bipolar transistor are powered by a first common current source and that the second JFET-type transistor and the interconnected second bipolar transistor are powered by a second common current source; - and wherein the electrical charge measuring system further comprises an output voltage evaluation system configured to evaluate the output voltage of the charge integrator and to discharge the feedback capacitance (Cf) by opening one of the keys after the output voltage exceeds the upper voltage limit (Uh) and by opening the other key when the output voltage drops below the lower voltage limit (Ui).
Non-trans, non-hydrogenated fat composition comprising less than 45 wt.% saturated fatty acids (SAFA) based on the total fatty acids in the composition, wherein the change in solid fat content from N35-N25 for the composition is at least 15, wherein N35 for the composition is less than 3, and wherein the POP/StOSt weight ratio is from 1 to 4, wherein N-values (Solid Fat content) are determined using NMR spectroscopy according to the IUPAC 2.150b method, stabilized at 20°C for 24 hours, and wherein "P" is palmitic acid, "O" is oleic acid and "St" is stearic acid.
A particle manipulation system, comprising: a particle manipulating device comprising a microfabricated particle sorting mechanism formed on a surface of a substrate, and a sample fluid comprises target particles and non-target material; at least one microfabricated input channel upstream of the particle manipulating device and at least one microfabricated output channel downstream of the particle manipulating device, through which a sample fluid flows; a sensor that detects a dry or imminently dry condition within at least one of the microfabricated channels and puts out a signal when the condition is detected; characterized by a fluid control means for establishing a controlled forward flow between the at least one microfabricated input channel and the at least one microfabricated output channel, and then reversing the flow between the output channel and the input channel upon receiving the signal from the sensor. a particle manipulating device comprising a microfabricated particle sorting mechanism formed on a surface of a substrate, and a sample fluid comprises target particles and non-target material; at least one microfabricated input channel upstream of the particle manipulating device and at least one microfabricated output channel downstream of the particle manipulating device, through which a sample fluid flows; a sensor that detects a dry or imminently dry condition within at least one of the microfabricated channels and puts out a signal when the condition is detected; characterized by a fluid control means for establishing a controlled forward flow between the at least one microfabricated input channel and the at least one microfabricated output channel, and then reversing the flow between the output channel and the input channel upon receiving the signal from the sensor.
Method for producing an electrical connection part, comprising: A) providing an electrical conductor as a strip, wherein the strip is at least partly split up into strip sections before or after plating takes place; B) electroplating the electrical conductor; C) exposing a contact area of the electrical conductor by removing the electroplating in the contact area using a beaming source. A) providing an electrical conductor as a strip, wherein the strip is at least partly split up into strip sections before or after plating takes place; B) electroplating the electrical conductor; C) exposing a contact area of the electrical conductor by removing the electroplating in the contact area using a beaming source.