mhurhangee/ep-ind-claims huggingface dataset:
A method of performing transmit power control, TPC, of a wireless transmitter/receiver unit, WTRU, the method comprising: receiving, by the WTRU from a serving evolved Node-B, eNodeB, associated with a serving cell, uplink grant information that includes an explicit correction command and uplink channel quality indicator, CQI, information; determining, by the WTRU, a transmit power level for a physical uplink channel using a combined open loop and closed loop TPC scheme, wherein an open loop portion of the combined open loop and closed loop TPC scheme is based on at least a downlink pathloss from the serving eNodeB to the WTRU measured at the WTRU, and a closed loop portion of the combined open loop and the closed loop TPC scheme is based on a closed loop correction factor that is based on at least the explicit correction command and the uplink CQI information; and transmitting on the physical uplink channel according to the determined transmit power level. receiving, by the WTRU from a serving evolved Node-B, eNodeB, associated with a serving cell, uplink grant information that includes an explicit correction command and uplink channel quality indicator, CQI, information; determining, by the WTRU, a transmit power level for a physical uplink channel using a combined open loop and closed loop TPC scheme, wherein an open loop portion of the combined open loop and closed loop TPC scheme is based on at least a downlink pathloss from the serving eNodeB to the WTRU measured at the WTRU, and a closed loop portion of the combined open loop and the closed loop TPC scheme is based on a closed loop correction factor that is based on at least the explicit correction command and the uplink CQI information; and transmitting on the physical uplink channel according to the determined transmit power level.
A drive device, comprising: a power storage device; an electric load; a plurality of boost converters(40,41) connected in parallel to each other and configured to transmit electric power with conversion of a voltage between the power storage device side and the electric load side; a control device configured to control the plurality of boost converters (40,41) by employing one control mode among a plurality of control modes including a first control mode that drives and controls only a portion of boost converters out of the plurality of boost converters (40,41) and a second control mode that drives and controls a larger number of boost converters than the portion of boost converters; the drive device being characterized in that the drive device further comprises a drive mode setting switch configured to be operated by an operator to set a plurality of drive modes to drive the drive device; and the control device is configured to change a switchover reference value that is used to switch over control between the first control mode and the second control mode according to a magnitude of the electric load, based on the drive mode set by operation of the drive mode setting switch. a power storage device; an electric load; a plurality of boost converters(40,41) connected in parallel to each other and configured to transmit electric power with conversion of a voltage between the power storage device side and the electric load side; a control device configured to control the plurality of boost converters (40,41) by employing one control mode among a plurality of control modes including a first control mode that drives and controls only a portion of boost converters out of the plurality of boost converters (40,41) and a second control mode that drives and controls a larger number of boost converters than the portion of boost converters; the drive device being characterized in that the drive device further comprises a drive mode setting switch configured to be operated by an operator to set a plurality of drive modes to drive the drive device; and the control device is configured to change a switchover reference value that is used to switch over control between the first control mode and the second control mode according to a magnitude of the electric load, based on the drive mode set by operation of the drive mode setting switch.
Communication cable comprising a protective sheath delimiting an internal cavity, an optical core for transmitting optical data signals, the optical core extending inside the internal cavity so as to define a space, in the internal cavity, between the sheath and the core, and one or more maintaining chord(s) wound around the optical core, wherein the optical core occupies at least 30% of the internal cavity and the set of chord (s) occupies less than 0.5% by volume of the space defined between the sheath and the optical core.
An axial piston pump, in particular for hydraulic systems, comprising a cylinder drum that can be driven rotatably about an axis in a pump housing, in which cylinder drum piston/cylinder units are arranged offset on a circle, the pistons being supported at least indirectly against a swashplate with their actuation end accessible outside of the cylinder drum, there being disposed between the displacement spaces of the piston/cylinder units and a stationary fluid inflow and a stationary fluid outflow of a connection plate a control device which has fluid channels (25, 26) for the targeted conveyance of fluid from the fluid inflow into the displacement spaces and from the displacement spaces to the fluid outflow, there being provided in the control device between the fluid channels (25, 26) a first pressure equalisation channel for the targeted build-up or relief of fluid pressure in the displacement spaces, and a second pressure equalisation channel being provided by means of which in each case only one displacement space can be connected to a pressure sink, characterised in that the second pressure equalisation channel is positioned such that the connection from the latter to the respective displacement space can only be closed after the connection from the fluid inflow to this displacement space has been established.
Use of a fuel composition to reduce the Long Term Fuel Trim (LTFT) for a direct fuel injected internal combustion gasoline engine wherein the fuel composition comprises: a major amount of fuel and an amount of a quaternary ammonium salt having a thermogravimetric analysis weight loss of greater than 50 wt.% at 350 °C when heated from 50 °C to 900 °C at a rate of temperature increase of 20 °C per minute under a nitrogen atmosphere flowing at a rate of 60 mL per minute, wherein the amount of quaternary ammonium salt present in the fuel ranges from 5 to 200 ppm by weight, based on a total weight of fuel and is sufficient to reduce the LTFT by at least 30% in the direct fuel injected engine having combusted said composition compared to the LTFT of said engine having combusted a fuel composition that does not contain said quaternary ammonium salt, as measured by the procedure disclosed in Society of Automotive Engineer International publication 2009-01-2641 "Test and Control of Fuel Injector Deposits in Direct Injected Spark Ignition Vehicles", wherein the quaternary ammonium salt comprises a compound of the formula wherein each of R 1, R 2, R 3, and R 4 is selected from a hydrocarbyl group containing from 1 to 50 carbon atoms, wherein at least one and not more than three of R 1, R 2, R 3, and R 4 is a hydrocarbyl group containing from 1 to 4 carbon atoms and at least one of R 1, R 2, R 3, and R 4 is a hydrocarbyl group containing from 8 to 50 carbon atoms, M - is selected from the group consisting of carboxylates, nitrates, nitrides, nitrites, hyponitrites, phenates, carbamates, carbonates, and mixtures thereof, wherein the carboxylate is not an oxalate.
A load balancing method for a wireless communication system, in which said wireless communication system comprises a backbone network, more than one Access Point connected to said backbone network and more than one client, characterized in that said method comprises the following steps: said client transmits a Probe Request message to said more than one Access Point; said Access Point monitors its load, if said Access Point is under an overload situation, it will transmit a Probe Response message to said client by the minimum transmitting power, wherein said Access Point determines minimum transmitting power of said Probe Response message based on the received signal strength indication RSSI determined from the received Probe Request message, and if said Access Point is under normal load situation, it will transmit said Probe Response message to said client by normal transmitting power; said client detects whether there is any Access Point under normal load situation based on the received Probe Response message, if there is, it will choose said Access Point under normal load situation to access; and if there is not, it will choose said Access Point under an overload situation to access. said client transmits a Probe Request message to said more than one Access Point; said Access Point monitors its load, if said Access Point is under an overload situation, it will transmit a Probe Response message to said client by the minimum transmitting power, wherein said Access Point determines minimum transmitting power of said Probe Response message based on the received signal strength indication RSSI determined from the received Probe Request message, and if said Access Point is under normal load situation, it will transmit said Probe Response message to said client by normal transmitting power; said client detects whether there is any Access Point under normal load situation based on the received Probe Response message, if there is, it will choose said Access Point under normal load situation to access; and if there is not, it will choose said Access Point under an overload situation to access.
A converting machine used to convert sheet material into packaging templates for assembly into boxes or other packaging, the converting machine comprising: a converting assembly configured to perform one or more transverse conversion functions and one or more longitudinal conversion functions on the sheet material, said converting assembly comprising: one or more longheads having one or more converting instruments (176, 178) that perform the one or more longitudinal conversion functions on the sheet material, wherein at least one of said one or more longheads is adapted to be selectively repositioned along a width of said converting assembly in order to make the one or more longitudinal conversion functions at different positions along the width of the sheet material; a crosshead having one or more converting instruments (160, 162) that perform the one or more transverse conversion functions on the sheet material, wherein said crosshead is selectively movable relative to the sheet material and along at least a portion of the width of said converting assembly in order to perform the one or more transverse conversion functions on the sheet material; and one or more guide channels (132, 132a, 132b) through which the sheet material may be fed, the one or more guide channels (132, 132a, 132b) comprising a fixed guide channel and a movable guide channel. one or more longheads having one or more converting instruments (176, 178) that perform the one or more longitudinal conversion functions on the sheet material, wherein at least one of said one or more longheads is adapted to be selectively repositioned along a width of said converting assembly in order to make the one or more longitudinal conversion functions at different positions along the width of the sheet material; a crosshead having one or more converting instruments (160, 162) that perform the one or more transverse conversion functions on the sheet material, wherein said crosshead is selectively movable relative to the sheet material and along at least a portion of the width of said converting assembly in order to perform the one or more transverse conversion functions on the sheet material; and one or more guide channels (132, 132a, 132b) through which the sheet material may be fed, the one or more guide channels (132, 132a, 132b) comprising a fixed guide channel and a movable guide channel.
An immunoassay device comprising a microporous substrate having an anti-lipoidal antibody capture area, comprising: (a) an anchor antibody immobilized on the substrate; and (b) a lipoidal antigen, comprising cardiolipin, lecithin, and cholesterol, wherein the immobilized anchor antibody is specifically bound to one or more of the cardiolipin, lecithin or cholesterol components of the lipoidal antigen thereby forming an immobilized anchor antibody-lipoidal antigen complex, wherein the device is a lateral flow device, which further comprises a conjugate pad located in the flow path, wherein the conjugate pad comprises a mobile or mobilizable detector reagent specific for the anti-lipoidal antibody, wherein the detector reagent comprises gold-conjugated Protein A, gold-conjugated Fc-specific Protein G, or gold-conjugated anti-human antibody(Fc portion). (a) an anchor antibody immobilized on the substrate; and (b) a lipoidal antigen, comprising cardiolipin, lecithin, and cholesterol, wherein the immobilized anchor antibody is specifically bound to one or more of the cardiolipin, lecithin or cholesterol components of the lipoidal antigen thereby forming an immobilized anchor antibody-lipoidal antigen complex, wherein the device is a lateral flow device, which further comprises a conjugate pad located in the flow path, wherein the conjugate pad comprises a mobile or mobilizable detector reagent specific for the anti-lipoidal antibody, wherein the detector reagent comprises gold-conjugated Protein A, gold-conjugated Fc-specific Protein G, or gold-conjugated anti-human antibody(Fc portion).
Method for harvesting and post-production packaging of leafy crops by hydroponic technique comprising the steps of: - spraying a plurality of vital plants such to create a water film on leaves to keep them hydrated, said plants being anchored by their respective roots to a supporting substrate; - gradually pre-cooling the vital plants at a temperature lower than or equal to +5 °C within a period of about 12 hours, in order to slow down their development and ripening; - cutting and separating the plants from the supporting substrate and from roots. - packaging the plants at a temperature not higher than 5 °C. - spraying a plurality of vital plants such to create a water film on leaves to keep them hydrated, said plants being anchored by their respective roots to a supporting substrate; - gradually pre-cooling the vital plants at a temperature lower than or equal to +5 °C within a period of about 12 hours, in order to slow down their development and ripening; - cutting and separating the plants from the supporting substrate and from roots. - packaging the plants at a temperature not higher than 5 °C.
A cryosurgical system, comprising: a cryosurgical instrument including a tip that is cooled by a cryogen in a fluid state and warmed by a same type of cryogen in a heated gaseous state; a fluid cryogen source that supplies a liquid cryogen for cooling the cryosurgical instrument to the cryosurgical instrument; a gaseous cryogen source that supplies a gaseous cryogen for heating the cryosurgical instrument to the cryosurgical instrument, wherein the gaseous cryogen source is discrete to the fluid cryogen source; and a heating element that selectively heats the gaseous cryogen, wherein the cryosurgical instrument is cooled during a cooling cycle by boiling the liquid cryogen, and the system further comprises an exhaust lumen and a pump to return the resulting gas phase cryogen to the gaseous cryogen source to provide the gaseous cryogen whereby the gaseous cryogen source and the liquid cryogen source supply a same type of cryogen; wherein the gaseous cryogen and the fluid cryogen are supplied sequentially, such that when said fluid cryogen source is in fluid communication with the cryosurgical instrument, said gaseous cryogen source is not in fluid communication with the cryosurgical instrument, and when said gaseous cryogen source is in fluid communication with the cryosurgical instrument during a heating cycle to heat the instrument, said fluid cryogen source is not in fluid communication with the cryosurgical instrument. a cryosurgical instrument including a tip that is cooled by a cryogen in a fluid state and warmed by a same type of cryogen in a heated gaseous state; a fluid cryogen source that supplies a liquid cryogen for cooling the cryosurgical instrument to the cryosurgical instrument; a gaseous cryogen source that supplies a gaseous cryogen for heating the cryosurgical instrument to the cryosurgical instrument, wherein the gaseous cryogen source is discrete to the fluid cryogen source; and a heating element that selectively heats the gaseous cryogen, wherein the cryosurgical instrument is cooled during a cooling cycle by boiling the liquid cryogen, and the system further comprises an exhaust lumen and a pump to return the resulting gas phase cryogen to the gaseous cryogen source to provide the gaseous cryogen whereby the gaseous cryogen source and the liquid cryogen source supply a same type of cryogen; wherein the gaseous cryogen and the fluid cryogen are supplied sequentially, such that when said fluid cryogen source is in fluid communication with the cryosurgical instrument, said gaseous cryogen source is not in fluid communication with the cryosurgical instrument, and when said gaseous cryogen source is in fluid communication with the cryosurgical instrument during a heating cycle to heat the instrument, said fluid cryogen source is not in fluid communication with the cryosurgical instrument.
A temperature-sensitive electrical switch, comprising a snap-action element, preferably a snap disc, made of a thermostatic bimetal, as well as a spring element as a movable contact section, a fixed contact section against which the movable contact section is movable for closing the contact, a pressure pin as an operative connection between the snap-action element and the spring element, a pin guide, a housing and a cover, wherein a connecting bridge is provided, which consists of a first part and a second part, wherein the first part forms a first terminal section, and the fixed contact section and the second part form a second terminal section and a connecting section on which the spring element is fastened, characterized in that a connecting bridge unit fixed to the housing is provided, which consists of the connecting bridge and a plastic part, and the first and the second part of the connecting bridge is embedded in the plastic part and are connected to each other by the plastic part and are firmly held in their position with respect to each other.
A method for determining a depth image for a digital image comprising a plurality of picture elements, the method comprising: • edge filtering the digital image to determine an edge map, the edge map comprising a plurality of edge values, wherein each edge value is associated with at least one picture element; • determining for each edge map region of a plurality of edge map regions an edge map region metric, wherein the edge map region metric for each edge map region includes the number of high edge values and the number of low edge values in the respective edge map region; • determining for each edge map region as to whether the respective edge map region metric fulfills a predefined criterion, wherein the predefined criterion is fulfilled when the number of high edge values exceeds a first predefined edge threshold value and the predefined criterion is not fulfilled when the number of low edge values exceeds a second predefined edge threshold value; • determining the number of edge map regions for which the respective edge map region metric fulfills the predefined criterion as a first value; • determining the number of edge map regions for which the respective edge map region metric does not fulfill the predefined criterion as a second value; and • determining the depth image using the first value and the second value, wherein the depth values of the depth image are determined using the edge values of the edge map via a piecewise linear mapping function. • edge filtering the digital image to determine an edge map, the edge map comprising a plurality of edge values, wherein each edge value is associated with at least one picture element; • determining for each edge map region of a plurality of edge map regions an edge map region metric, wherein the edge map region metric for each edge map region includes the number of high edge values and the number of low edge values in the respective edge map region; • determining for each edge map region as to whether the respective edge map region metric fulfills a predefined criterion, wherein the predefined criterion is fulfilled when the number of high edge values exceeds a first predefined edge threshold value and the predefined criterion is not fulfilled when the number of low edge values exceeds a second predefined edge threshold value; • determining the number of edge map regions for which the respective edge map region metric fulfills the predefined criterion as a first value; • determining the number of edge map regions for which the respective edge map region metric does not fulfill the predefined criterion as a second value; and • determining the depth image using the first value and the second value,
A two-component composition comprising: - a part A comprising a complex of organoborane with an amine; - a part B comprising a polymer comprising at least one acrylic group and at least one isocyanate group; the composition comprising at least one acrylic monomer or oligomer in part A and/or in part B of the composition. - a part A comprising a complex of organoborane with an amine; - a part B comprising a polymer comprising at least one acrylic group and at least one isocyanate group;
A method of manufacturing a head chip having an actuator plate adapted to apply pressure to liquid so as to jet the liquid, the method comprising forming the actuator plate, the step of forming the actuator plate including: forming a plurality of grooves on a surface of a piezoelectric substrate having one end (411E1) and another end (411E2) so as to extend from one end part of the piezoelectric substrate adjacent to the one end toward another end part of the piezoelectric substrate adjacent to the other end; forming a conductive film on the surface of the piezoelectric substrate provided with the plurality of grooves; characterized by forming a laser processing area in the conductive film between the grooves adjacent to each other by performing laser processing from a start point (Ps) at the one end part of the piezoelectric substrate to an end point (Pe) at the other end part of the piezoelectric substrate; and forming a surface removal area in at least a part including the start point and the end point of the surface of the piezoelectric substrate by performing surface removal processing in a direction crossing the direction in which the laser processing is performed. forming a plurality of grooves on a surface of a piezoelectric substrate having one end (411E1) and another end (411E2) so as to extend from one end part of the piezoelectric substrate adjacent to the one end toward another end part of the piezoelectric substrate adjacent to the other end; forming a conductive film on the surface of the piezoelectric substrate provided with the plurality of grooves; characterized by forming a laser processing area in the conductive film between the grooves adjacent to each other by performing laser processing from a start point (Ps) at the one end part of the piezoelectric substrate to an end point (Pe) at the other end part of the piezoelectric substrate; and forming a surface removal area in at least a part including the start point and the end point of the surface of the piezoelectric substrate by performing surface removal processing in a direction crossing the direction in which the laser processing is performed.