mhurhangee/patent-ind-claim-en huggingface dataset:
A greenhouse film comprising a polymeric composition comprising: a) 50 to 99 percent by weight of a continuous polymeric phase comprising a polymer selected from the group consisting of a polyolefin, a polyolefin copolymer, an ethylene or propylene copolymer with an acrylic ester, an ethylene or propylene copolymer with a vinyl acetate, and combinations thereof; and b) 1 to 50 percent by weight of polymeric particles having i) an average particle diameter of 0.5 to 10 μm; ii) a refractive index from 1.474 to 1.545; iii) an average particle hardness from 1.2367E+10 N/m 2 to 8.4617E+10 N/m 2 ; and iv) at least 60% polymerized acrylic monomer units. a) 50 to 99 percent by weight of a continuous polymeric phase comprising a polymer selected from the group consisting of a polyolefin, a polyolefin copolymer, an ethylene or propylene copolymer with an acrylic ester, an ethylene or propylene copolymer with a vinyl acetate, and combinations thereof; and b) 1 to 50 percent by weight of polymeric particles having i) an average particle diameter of 0.5 to 10 μm; ii) a refractive index from 1.474 to 1.545; iii) an average particle hardness from 1.2367E+10 N/m 2 to 8.4617E+10 N/m 2 ; and iv) at least 60% polymerized acrylic monomer units. i) an average particle diameter of 0.5 to 10 μm; ii) a refractive index from 1.474 to 1.545; iii) an average particle hardness from 1.2367E+10 N/m 2 to 8.4617E+10 N/m 2 ; and iv) at least 60% polymerized acrylic monomer units.
An implantable device for improving the pump function of the heart of a human patient by applying an external force on the heart muscle, said device comprising at least one pump device having a pump function, the pump device comprising: - a piston adapted for reciprocating movement, - an operating device for operating the piston, a heart contacting organ, and characterized in that said pump device further comprises: - a pressurized fluid system comprising: - a first chamber adapted to hold a pressurized fluid, wherein said first chamber is adapted to hold a fluid having a high pressure and - a second chamber adapted to hold a pressurized fluid, wherein said second chamber is adapted to hold a fluid having a lower pressure, and wherein said piston is adapted to use said first chamber for moving said piston in two directions with high pressure fluid, and wherein said piston is further adapted to use said second chamber for lowering the pressure on one side of said piston, and wherein the movement of the piston directly or indirectly is transported to said heart contacting organ to assist the pump function of the heart, and wherein said pressurized fluid system further comprises a valve system being adapted to direct fluid between different sides of the piston, which side depending on the piston position or piston direction, and said first chamber and/or said second chamber to allow reciprocal and iterative movement of said piston. - a piston adapted for reciprocating movement, - an operating device for operating the piston, a heart contacting organ, and - a pressurized fluid system comprising: - a first chamber adapted to hold a pressurized fluid, wherein said first chamber is adapted to hold a fluid having a high pressure and - a second chamber adapted to hold a pressurized fluid, wherein said second chamber is adapted to hold a fluid having a lower pressure, and wherein - a first chamber adapted to hold a pressurized fluid, wherein said first chamber is adapted to hold a fluid having a high pressure and - a second chamber adapted to hold a pressurized fluid, wherein said second chamber is adapted to hold a fluid having a lower pressure, and wherein
A paging method performed by a user equipment in a New Radio Unlicensed spectrum, abbreviated to NR-U, system, wherein the user equipment is configured with a paging monitor window comprising a plurality of monitor occasions , comprising: determining locations of the plurality of monitor occasions , wherein the plurality of monitor occasions comprises an initial monitor occasion and one or more additional monitor occasion, and the step of determining the locations of the plurality of monitor occasions comprises determining the one or more additional monitor occasion respectively located at one or more slot with a same slot index of one or more radio frame; and receiving a paging message at the plurality of monitor occasions within the paging monitor window . determining locations of the plurality of monitor occasions , wherein the plurality of monitor occasions comprises an initial monitor occasion and one or more additional monitor occasion, and the step of determining the locations of the plurality of monitor occasions comprises determining the one or more additional monitor occasion respectively located at one or more slot with a same slot index of one or more radio frame; and receiving a paging message at the plurality of monitor occasions within the paging monitor window .
A method, in a wireless terminal, for a handover of a sub-set of bearers associated with the wireless terminal, said sub-set of bearers being less than all bearers associated with the wireless terminal, the method comprising: receiving , from a source or a target base station, a message, said message indicating that a handover procedure will take place for an identified sub-set of bearers; and characterised by : handing over the identified sub-set of bearers to the target base station, wherein at least one bearer associated with the wireless terminal, which is not part of the identified sub-set of bearers, remains connected to the source base station; wherein the source base station is an eNB, the wireless terminal is a user equipment and the identified sub-set of bearers is identified with a list of data radio bearers. handing over the identified sub-set of bearers to the target base station, wherein at least one bearer associated with the wireless terminal, which is not part of the identified sub-set of bearers, remains connected to the source base station; wherein the source base station is an eNB, the wireless terminal is a user equipment and the identified sub-set of bearers is identified with a list of data radio bearers.
Use of a coating composition comprising: a) a base composition comprising a polyetheraspartic ester having the formula (I) below wherein each R represents a linear or branched C 1 -C 10 alkyl residue, such as a linear or branched C 1 -C 6 alkyl residue, preferably a methyl, ethyl, propyl or butyl residue; and wherein X is a polyether; and b) a curing agent; for coating of a wind turbine blade, wherein said coating use is for use as a leading edge protective coating of said wind turbine blade. a) a base composition comprising a polyetheraspartic ester having the formula (I) below wherein each R represents a linear or branched C 1 -C 10 alkyl residue, such as a linear or branched C 1 -C 6 alkyl residue, preferably a methyl, ethyl, propyl or butyl residue; and wherein X is a polyether; and wherein each R represents a linear or branched C 1 -C 10 alkyl residue, such as a linear or branched C 1 -C 6 alkyl residue, preferably a methyl, ethyl, propyl or butyl residue; and wherein X is a polyether; b) a curing agent; for coating of a wind turbine blade, wherein said coating use is for use as a leading edge protective coating of said wind turbine blade.
A composition for use in a method for protecting a kidney from renal fibrosis associated with prerenal acute renal injury or intrinsic acute renal injury in a subject in need thereof, the composition comprising an effective amount of a peptide selected from the group consisting of Phe-D-Arg-Phe-Lys-NH 2 and D-Arg-2'6'Dmt-Lys-Phe-NH 2 .
A method of monitoring and/or measuring an autoregulation mechanism of the blood pressure in a living being using an ECG signal , comprising: - recording the ECG signal of the living being, - recording a pulse wave curve synchronously with the recording of the ECG signal , the method further comprising the following steps using a computer arranged to process the ECG signal and the pulse wave curve: - determining heart rate intervals from the ECG signal , - determining a pulse wave transit time for each heart rate interval from the pulse wave curve and the ECG signal , in particular from R waves of the ECG signal , - determining a plurality of significant changes in the pulse wave transit times according to a specified criterion, - selecting one respective heart rate interval correlated in time with each significant change in the pulse wave transit times as an anchor point, - selecting a determined limited number of temporally successive heart rate intervals temporally before and/or after each anchor point to thus generate a limited sequence of heart rate intervals for each anchor point, - averaging a plurality of corresponding heart rate intervals of each sequence of a respective anchor point over all sequences of the anchor points, - determining at least one baroreflex sensitivity indicator based on the averaged plurality of corresponding heart rate intervals. - recording the ECG signal of the living being, - recording a pulse wave curve synchronously with the recording of the ECG signal , - determining heart rate intervals from the ECG signal , - determining a pulse wave transit time for each heart rate interval from the pulse wave curve and the ECG signal , in particular from R waves of the ECG signal , - determining a plurality of significant changes in the pulse wave transit times according to a specified criterion, - selecting one respective heart rate interval correlated in time with each significant change in the pulse wave transit times as an anchor point, - selecting a determined limited number of temporally successive heart rate intervals temporally before and/or after each anchor point to thus generate a limited sequence of heart rate intervals for each anchor point, - averaging a plurality of corresponding heart rate intervals of each sequence of a respective anchor point over all sequences of the anchor points, - determining at least one baroreflex sensitivity indicator based on the averaged plurality of corresponding heart rate intervals.
An ink heating device disposed on an inkjet recording device and configured to heat ink, comprising: an ink tank that is an integrated unit of a plurality of subtanks configured for storing ink and which are disposed along a longitudinal direction of the ink tank ; and three heaters configured to heat the ink tank , wherein the heaters are configured so as to heat the subtanks disposed at both longitudinal ends of the ink tank to a temperature higher than a temperature of a subtank disposed at a central area in the longitudinal direction of the ink tank ; , the heaters comprise three heaters disposed in the central area and the both longitudinal ends of the ink tank, and the ink heating device further comprises: a controller configured to independently control heating temperatures of the heaters . an ink tank that is an integrated unit of a plurality of subtanks configured for storing ink and which are disposed along a longitudinal direction of the ink tank ; and three heaters configured to heat the ink tank , wherein the heaters are configured so as to heat the subtanks disposed at both longitudinal ends of the ink tank to a temperature higher than a temperature of a subtank disposed at a central area in the longitudinal direction of the ink tank ; , the heaters comprise three heaters disposed in the central area and the both longitudinal ends of the ink tank, and the ink heating device further comprises: a controller configured to independently control heating temperatures of the heaters .
A solid-state imaging device comprising: a pixel unit provided with a plurality of rows, each row including a plurality of pixels and extending in a horizontal direction; a readout row selection unit configured to select one of the plurality of rows as a readout row every time a predetermined period elapses and cause each of the plurality of pixels in the readout row to generate a signal potential according to a received light amount; a reference row selection unit configured to select a row different from a previous row from among the plurality of rows as a current reference row every time the predetermined period elapses, and cause each of the plurality of pixels in the reference row to generate a predetermined reference potential; a readout circuit unit configured to read a signal according to a difference between the signal potential and the reference potential; and a random number generation unit configured to generate a predetermined random number, wherein the reference row selection unit is configured to select the reference row on a basis of the random number. a pixel unit provided with a plurality of rows, each row including a plurality of pixels and extending in a horizontal direction; a readout row selection unit configured to select one of the plurality of rows as a readout row every time a predetermined period elapses and cause each of the plurality of pixels in the readout row to generate a signal potential according to a received light amount; a reference row selection unit configured to select a row different from a previous row from among the plurality of rows as a current reference row every time the predetermined period elapses, and cause each of the plurality of pixels in the reference row to generate a predetermined reference potential; a readout circuit unit configured to read a signal according to a difference between the signal potential and the reference potential; and a random number generation unit configured to generate a predetermined random number, wherein the reference row selection unit is configured to select the reference row on a basis of the random number.
A method of providing buffers for a hardware accelerator in a telecommunications device for packetized data, comprising: providing a dynamic pool of buffers for use by the hardware accelerator , wherein access to the pool of buffers is controlled by software in the telecommunications device, wherein the software dynamically adjusts the pool of buffers according to hardware needs indicated by at least one of status signals from the hardware and threshold information on the pool of buffers and the dynamic adjustment sizes the pool of buffers to span multiple tasks, wherein buffers in the pool are replenished via software control. providing a dynamic pool of buffers for use by the hardware accelerator , wherein access to the pool of buffers is controlled by software in the telecommunications device, wherein the software dynamically adjusts the pool of buffers according to hardware needs indicated by at least one of status signals from the hardware and threshold information on the pool of buffers and the dynamic adjustment sizes the pool of buffers to span multiple tasks, wherein buffers in the pool are replenished via software control.
A method, performed by a client , of scheduling reception of media content, the method comprising: determining (S210) a plurality of network connections enabling the reception of the media content between the client and a server ; predicting (S220), a time within a buffering mode, at which at least one remaining segment among a plurality of segments of the media content required for switching from the buffering mode to a play mode would change from being received through all of the plurality of the network connections to being received through only a part of the plurality of network connections , wherein the predicting is based on a buffer size of the client and the number of the plurality of network connections ; generating (S230) scheduling information for allocating the at least one remaining segment to each of the plurality of network connections in the unit of subsegments of the remaining segments, at the predicted time; transmitting (S240) the generated scheduling information to the server , and receiving the media content from the server , based on the transmitted scheduling information. determining (S210) a plurality of network connections enabling the reception of the media content between the client and a server ; predicting (S220), a time within a buffering mode, at which at least one remaining segment among a plurality of segments of the media content required for switching from the buffering mode to a play mode would change from being received through all of the plurality of the network connections to being received through only a part of the plurality of network connections , wherein the predicting is based on a buffer size of the client and the number of the plurality of network connections ; generating (S230) scheduling information for allocating the at least one remaining segment to each of the plurality of network connections in the unit of subsegments of the remaining segments, at the predicted time; transmitting (S240) the generated scheduling information to the server , and receiving the media content from the server , based on the transmitted scheduling information.
A waterproof electronic device , comprising: a shell , a first electronic module , a second electronic module , and a flexible printed circuit FPC , wherein the shell comprises a first compartment and a second compartment ; the first compartment and the second compartment are in communication with each other through a through hole , and the through hole is used for the FPC to pass through; the first electronic module is arranged in the first compartment, and the second electronic module is arranged in the second compartment; the first electronic module is coupled to the second electronic module by using the FPC, and the FPC passes through the through hole; and an opening is provided on the shell, wherein the opening is in communication with the through hole, and a magnetic colloidal structure is arranged in the through hole, characterised in that the magnetic colloidal structure is an elastomer structure having a magnetic property due to an addition of a magnetic substance such that the elastomer structure can magnetically attract the shell, wherein the magnetic colloidal structure matches the through hole in shape and size and is fixedly sleeved on the FPC by injection molding. the shell comprises a first compartment and a second compartment ; the first compartment and the second compartment are in communication with each other through a through hole , and the through hole is used for the FPC to pass through; the first electronic module is arranged in the first compartment, and the second electronic module is arranged in the second compartment; the first electronic module is coupled to the second electronic module by using the FPC, and the FPC passes through the through hole; and an opening is provided on the shell, wherein the opening is in communication with the through hole, and a magnetic colloidal structure is arranged in the through hole, characterised in that the magnetic colloidal structure is an elastomer structure having a magnetic property due to an addition of a magnetic substance such that the elastomer structure can magnetically attract the shell, wherein the magnetic colloidal structure matches the through hole in shape and size and is fixedly sleeved on the FPC by injection molding.
A planetary gear system for a turbomachine, comprising: a forward planetary gear assembly including a plurality of forward planet gears meshed to a forward sun gear disposed on a power shaft and a forward ring gear meshed to the forward planet gears; an aft planetary gear assembly aft of the forward planetary gear assembly including a plurality of aft planet gears meshed to an aft sun gear disposed on the power shaft and an aft ring gear meshed to the aft planet gears; and characterised by a gear housing disposed between the forward planetary gear assembly and the aft planetary gear assembly, wherein the gear housing includes: a stationary carrier , wherein the forward and aft planet gears are rotatably mounted to the stationary carrier; and a mount extending radially from the stationary carrier that is connectable to a stationary portion of the turbomachine. a forward planetary gear assembly including a plurality of forward planet gears meshed to a forward sun gear disposed on a power shaft and a forward ring gear meshed to the forward planet gears; an aft planetary gear assembly aft of the forward planetary gear assembly including a plurality of aft planet gears meshed to an aft sun gear disposed on the power shaft and an aft ring gear meshed to the aft planet gears; and characterised by a gear housing disposed between the forward planetary gear assembly and the aft planetary gear assembly, wherein the gear housing includes: a stationary carrier , wherein the forward and aft planet gears are rotatably mounted to the stationary carrier; and a mount extending radially from the stationary carrier that is connectable to a stationary portion of the turbomachine. a stationary carrier , wherein the forward and aft planet gears are rotatably mounted to the stationary carrier; and a mount extending radially from the stationary carrier that is connectable to a stationary portion of the turbomachine.
A method of fabricating thin-film optoelectronic devices , the method comprising: providing a substrate ; forming a back-contact layer ; forming at least one absorber layer , which absorber layer is made of an ABC chalcogenide material, including ABC chalcogenide material ternary, quaternary, pentanary, or multinary variations, wherein A represents elements of group 11 of the periodic table of chemical elements as defined by the International Union of Pure and Applied Chemistry including Cu and Ag, B represents elements in group 13 of the periodic table including In, Ga, and Al, and C represents elements in group 16 of the periodic table including S, Se, and Te; adding at least one alkali metal; and subjecting the absorber layer to at least one step of aqueous wetting ; characterized in that , after forming the absorber layer, the duration of exposure of the device to air is at most 10 cumulated minutes for air at standard ambient temperature and pressure and 40% relative humidity before subjecting the absorber layer to said at least one step of aqueous wetting whereby the aqueous wetting forms nanocavities at the surface of the absorber layer by selectively dissolving away from said surface of the absorber layer alkali metal crystals embedded in the surface of the absorber layer. providing a substrate ; forming a back-contact layer ; forming at least one absorber layer , which absorber layer is made of an ABC chalcogenide material, including ABC chalcogenide material ternary, quaternary, pentanary, or multinary variations, wherein A represents elements of group 11 of the periodic table of chemical elements as defined by the International Union of Pure and Applied Chemistry including Cu and Ag, B represents elements in group 13 of the periodic table including In, Ga, and Al, and C represents elements in group 16 of the periodic table including S, Se, and Te; adding at least one alkali metal; and subjecting the absorber layer to at least one step of aqueous wetting ; characterized in that , after forming the absorber layer, the duration of exposure of the device to air is at most 10 cumulated minutes for air at standard ambient temperature and pressure and 40% relative humidity before subjecting the absorber layer to said at least one step of aqueous wetting whereby the aqueous wetting forms nanocavities at the surface of the absorber layer by selectively dissolving away from said surface of the absorber layer alkali metal crystals embedded in the surface of the absorber layer.