mhurhangee/ep-ind-claims huggingface dataset:
A metal powder obtainable by a process for producing metal powders comprising the steps of: - providing a hydride powder of a first metal being selected from the group consisting of tantalum, niobium and alloys of said metals with each other or one or both of them with other metals, the hydride having an oxygen content of under 300 ppm; - mixing said metal hydride with a metal having a higher affinity for oxygen and heating the mixture; - removing the metal having a higher affinity for oxygen from the metal, to form a powder of the first metal with an oxygen content of less than 100 ppm. - providing a hydride powder of a first metal being selected from the group consisting of tantalum, niobium and alloys of said metals with each other or one or both of them with other metals, the hydride having an oxygen content of under 300 ppm; - mixing said metal hydride with a metal having a higher affinity for oxygen and heating the mixture; - removing the metal having a higher affinity for oxygen from the metal, to form a powder of the first metal with an oxygen content of less than 100 ppm.
A power feeder comprising: a power output signal generator configured to generate a plurality of power output signals of different strengths; and a controller configured to perform an increasing or decreasing control to increase or decrease at least one of the strengths of the power output signals based on the strengths of the power output signals at which an electronic device has been detected; characterized in that the controller is configured to detect the electronic device while repeatedly generating a sequence pattern including the power output signals, and perform the increasing or decreasing control based on detection frequency for each of the strengths at which the electronic device has been detected. a power output signal generator configured to generate a plurality of power output signals of different strengths; and a controller configured to perform an increasing or decreasing control to increase or decrease at least one of the strengths of the power output signals based on the strengths of the power output signals at which an electronic device has been detected; characterized in that the controller is configured to detect the electronic device while repeatedly generating a sequence pattern including the power output signals, and perform the increasing or decreasing control based on detection frequency for each of the strengths at which the electronic device has been detected.
A method implemented by a first radio node for determining a rate at which units of data are received erroneously from one or more second radio nodes, the method comprising: inspecting data units received from the one or more second radio nodes for errors; making successive determinations of the rate at which data units are received erroneously from the one or more second radio nodes, wherein each determination must be made based on inspecting at least a minimum number of received data units for errors; adapting the minimum number of data units that must be inspected across determinations of different rates, such that determinations of different rates must be respectively made based on inspecting different minimum numbers of received data units for errors; determining the minimum number of received data units that must be inspected as a basis for making a determination that data units are received erroneously at a particular rate, as a function of at least a first parameter K, wherein determining said minimum number of received data units comprises calculating a second parameter as being the first parameter divided by said particular rate, and calculating the minimum number of received data units as being the smallest integer number not less than the second parameter; and performing radio operational tasks using one or more of error rate determinations, wherein said radio operational tasks include adapting one or more parameters that govern reception of data units by the first radio node and/or that govern transmission of data units by the second radio node. inspecting data units received from the one or more second radio nodes for errors; making successive determinations of the rate at which data units are received erroneously from the one or more second radio nodes, wherein each determination must be made based on inspecting at least a minimum number of received data units for errors; adapting the minimum number of data units that must be inspected across determinations of different rates, such that determinations of different rates must be respectively made based on inspecting different minimum numbers of received data units for errors; determining the minimum number of received data units that must be inspected as a basis for making a determination that data units are received erroneously at a particular rate, as a function of at least a first parameter K, wherein determining said minimum number of received data units comprises calculating a second parameter as being the first parameter divided by said particular rate, and calculating the minimum number of received data units as being the smallest integer number not less than the second parameter; and performing radio operational tasks using one or more of error rate determinations, wherein said radio operational tasks include adapting one or more parameters that govern reception of data units by the first radio node and/or that govern transmission of data units by the second radio node.
A method, comprising: in response to replacing first data at a first cache entry at a first region of a first cache, transferring the first data to a second cache responsive to the first data being prefetched data that has not been a target of a demand request, according to a first transfer policy (111, 311); and in response to replacing second data at a second cache entry at a second region of the first cache, discarding the second data from the first cache responsive to the data being prefetched data that has not been a target of a demand request, according to a second transfer policy (112, 312); measuring a first performance characteristic for the first region of the first cache and a second performance characteristic for the second region of the first cache; selecting the first transfer policy or the second transfer policy for a third region of the first cache based on the first performance characteristic and the second performance characteristic. in response to replacing first data at a first cache entry at a first region of a first cache, transferring the first data to a second cache responsive to the first data being prefetched data that has not been a target of a demand request, according to a first transfer policy (111, 311); and in response to replacing second data at a second cache entry at a second region of the first cache, discarding the second data from the first cache responsive to the data being prefetched data that has not been a target of a demand request, according to a second transfer policy (112, 312); measuring a first performance characteristic for the first region of the first cache and a second performance characteristic for the second region of the first cache; selecting the first transfer policy or the second transfer policy for a third region of the first cache based on the first performance characteristic and the second performance characteristic.
An expression construct represented by SEQ ID NO. 7 for co-expression of the genes AspAT, GS and PEPCase comprising nucleotide sequences represented by SEQ ID NO: 1, SEQ ID NO: 2 and SEQ ID NO: 3, wherein SEQ ID NO: 1 represents AspAT gene, SEQ ID NO: 2 represents GS gene and SEQ ID NO: 3 represents PEPCase gene linked to atleast one control sequence and a transcription terminator sequence, useful for enhancing the carbon, nitrogen, biomass and yield of plants as compared to wild type or untransformed plant.
A drag force reduction system comprising: (a) a semitrailer having a main frame extending along a longitudinal axis and a subframe movably connected to the main frame between a first position along the longitudinal axis and a second position along the longitudinal axis; (b) an axle assembly attached to the subframe, the axle assembly including an axle, a plurality of wheels and a suspension; and (c) a fairing located under the main frame and separated from the axle assembly along the longitudinal axis by a given spacing, the fairing movable relative to the main frame to maintain the given spacing between the axle assembly and the fairing independent of the subframe being located at any of a number of positions between the first position and the second position. (a) a semitrailer having a main frame extending along a longitudinal axis and a subframe movably connected to the main frame between a first position along the longitudinal axis and a second position along the longitudinal axis; (b) an axle assembly attached to the subframe, the axle assembly including an axle, a plurality of wheels and a suspension; and (c) a fairing located under the main frame and separated from the axle assembly along the longitudinal axis by a given spacing, the fairing movable relative to the main frame to maintain the given spacing between the axle assembly and the fairing independent of the subframe being located at any of a number of positions between the first position and the second position.
A drive assembly for a portable, hand-held tool, the drive assembly comprising: a drive assembly housing; a gear assembly positioned within the drive assembly housing, the gear assembly including a multi-stage planetary gear assembly having at least an input stage and an output stage; a lead drive shaft having a distal end portion, a proximal end portion and an intermediate portion between the distal end portion and the proximal end portion, the distal end portion being threaded and substantially outside the drive assembly housing, and the intermediate portion has a smooth exterior surface; and a bearing system positioned at least partially within the drive assembly housing, the bearing system being interactive with the lead drive shaft enabling the drive assembly to withstand radial and axial loads as the lead drive shaft is rotated during an operation of the tool. a drive assembly housing; a gear assembly positioned within the drive assembly housing, the gear assembly including a multi-stage planetary gear assembly having at least an input stage and an output stage; a lead drive shaft having a distal end portion, a proximal end portion and an intermediate portion between the distal end portion and the proximal end portion, the distal end portion being threaded and substantially outside the drive assembly housing, and the intermediate portion has a smooth exterior surface; and a bearing system positioned at least partially within the drive assembly housing, the bearing system being interactive with the lead drive shaft enabling the drive assembly to withstand radial and axial loads as the lead drive shaft is rotated during an operation of the tool.
A force sensor comprising: a leadframe comprising an opening and a plurality of electrically conductive leads; a sense die (104, 204) coupled to the leadframe, wherein the sense die (104, 204) comprises a first side and a second side, wherein the sense die (104, 204) is disposed on the leadframe, and wherein the sense die (104, 204) is electrically coupled to the plurality of electrically conductive leads; an encapsulant disposed over at least a portion of the leadframe and the sense die (104, 204), wherein the plurality of conductive leads extends from the encapsulant; a first actuation element disposed in contact with the first side of the sense die (104, 204), wherein the first actuation element comprises a mechanical coupling element configured to mechanically couple an external force with the sense die (104, 204); and a second actuation element disposed in contact with the second side of the sense die (104, 204), wherein the second actuation element comprises a gel; the second side is opposite to the first side; characterized in that the first actuation element is snap fitted through the opening and retained between the opening and the first side of the sense die (104, 204). a leadframe comprising an opening and a plurality of electrically conductive leads; a sense die (104, 204) coupled to the leadframe, wherein the sense die (104, 204) comprises a first side and a second side, wherein the sense die (104, 204) is disposed on the leadframe, and wherein the sense die (104, 204) is electrically coupled to the plurality of electrically conductive leads; an encapsulant disposed over at least a portion of the leadframe and the sense die (104, 204), wherein the plurality of conductive leads extends from the encapsulant; a first actuation element disposed in contact with the first side of the sense die (104, 204), wherein the first actuation element comprises a mechanical coupling element configured to mechanically couple an external force with the sense die (104, 204); and a second actuation element disposed in contact with the second side of the sense die (104, 204), wherein the second actuation element comprises a gel; the second side is opposite to the first side; characterized in that the first actuation element is snap fitted through the opening and retained between the opening and the first side of the sense die (104, 204).
An LC format optical connector for terminating an optical fiber, comprising: a housing including an outer shell configured to mate with an LC receptacle, the outer shell having an LC format and a front face, the housing further including a resilient latch disposed on a surface of the outer shell and configured to engage the LC receptacle, wherein the resilient latch comprises a single-piece latch having a driver formed thereon that is configured to receive a pressing force that disengages the latch from an LC receptacle, the housing further including a backbone configured to engage an outer surface of the outer shell on a first portion thereof and having a mounting structure disposed on a second portion thereof configured to engage a boot, the backbone further including a slot configured to permit the backbone to be slid over a portion of the outer shell and that accommodates the latch; and a collar body disposed in the housing and retained between the outer shell and the backbone, wherein the collar body includes a fiber stub disposed in a first portion of the collar body, the fiber stub including a first optical fiber mounted in a ferrule and having a first end proximate to an end face of the ferrule and a second end, wherein the collar body further includes a mechanical splice disposed in a second portion of the collar body, the mechanical splice configured to splice the second end of the fiber stub to a second optical fiber. a housing including an outer shell configured to mate with an LC receptacle, the outer shell having an LC format and a front face, the housing further including a resilient latch disposed on a surface of the outer shell and configured to engage the LC receptacle, wherein the resilient latch comprises a single-piece latch having a driver formed thereon that is configured to receive a pressing force that disengages the latch from an LC receptacle, the housing further including a backbone configured to engage an outer surface of the outer shell on a first portion thereof and having a mounting structure disposed on a second portion thereof configured to engage a boot, the backbone further including a slot configured to permit the backbone to be slid over a portion of the outer shell and that accommodates the latch; and a collar body disposed in the housing and retained between the outer shell and the backbone, wherein the collar body includes a fiber stub disposed in a first portion of the collar body, the fiber stub including a first optical fiber mounted in a ferrule and having a first end proximate to an end face of the ferrule and a second end, wherein the collar body further includes a mechanical splice disposed in a second portion of the collar body, the mechanical splice configured to splice the second end of the fiber stub to a second optical fiber.
A filtration device (1, 1') consisting of a housing (2, 2') with an inlet (3, 3') for the supply of fluid to be filtered and an outlet (4, 4') for the discharge of filtered permeate as well as a filter module (5, 5') arranged between the inlet (3, 3') and the outlet (4, 4') having a plurality of permeable membrane layers (9, 9') consisting of at least one membrane, said membrane layers being connected in fluid-tight manner to the housing (2, 2'), wherein an inflow channel (11, 11') is arranged upstream from the filter module (5, 5') towards the inlet (3, 3') and an outflow channel (12, 12') is arranged downstream towards the outlet (4, 4') and wherein at least one permeable intermediate layer (10, 10') formed from at least one non-woven material is arranged between at least two membrane layers (9, 9'), characterized in that the at least one membrane is swellable and the at least one intermediate layer (10, 10') is compressible for the compensation of swellings of the membrane layers (9, 9'), wherein the thickness of the intermediate layer (10, 10') is 75 to 125% of the thickness of the membrane layers (9, 9'), the mass per unit area of the intermediate layer (10, 10') is 30 to 80 g/m 2 and the air permeability of the intermediate layer (10, 10') is 2000 to 5000 L/(m 2 * s). and wherein at least one permeable intermediate layer (10, 10') formed from at least one non-woven material is arranged between at least two membrane layers (9, 9'), characterized in that the at least one membrane is swellable and the at least one intermediate layer (10, 10') is compressible for the compensation of swellings of the membrane layers (9, 9'), wherein the thickness of the intermediate layer (10, 10') is 75 to 125% of the thickness of the membrane layers (9, 9'), the mass per unit area of the intermediate layer (10, 10') is 30 to 80 g/m 2 and the air permeability of the intermediate layer (10, 10') is 2000 to 5000 L/(m 2 * s).
A method of wireless communication comprising: determining that a scheduled transmission is to be initiated in a frequency band in which at least one device uses contention based communication; transmitting a reservation message to release a resource from the contention based communication, wherein the transmitting of the reservation message causes interference to the at least one device at a level higher than a contention threshold of the at least one device; and transmitting the scheduled transmission subsequent to transmitting the reservation message within a time interval shorter than a backoff time of the contention based communication. determining that a scheduled transmission is to be initiated in a frequency band in which at least one device uses contention based communication; transmitting a reservation message to release a resource from the contention based communication, wherein the transmitting of the reservation message causes interference to the at least one device at a level higher than a contention threshold of the at least one device; and transmitting the scheduled transmission subsequent to transmitting the reservation message within a time interval shorter than a backoff time of the contention based communication.
An axle support, comprising a frame structure with an upper longitudinal member structure portion, a lower longitudinal member structure portion, a lower frame structure connection region and an upper frame structure connection region, wherein the upper longitudinal member structure portion runs above a drive shaft, wherein the lower longitudinal member structure portion runs below the drive shaft, and wherein the lower frame structure connection region is formed integrally with the lower longitudinal member structure portion or is connected thereto, characterised in that a supporting strut connects the lower frame structure connection region to the upper frame structure connection region, wherein the upper frame structure connection region is arranged closer than the lower frame structure connection region to a body connection.
A method for photopolymerization printing an article comprising, a) exposing for a time with light, a photopolymerizable composition comprising i. at least one photopolymerizable macromer component; ii. at least one light reflective material component suspended in the photopolymerizable composition; and iii. at least one photoinitiator component; wherein the light reflective material component modulates the light dose requirement of the photopolymerizable composition when compared to the light dose requirement of the composition without the light reflective material; and b) forming a printed article comprising at least polymerized macromers, characterized in that said light reflective material is absorbable in physiological conditions. a) exposing for a time with light, a photopolymerizable composition comprising i. at least one photopolymerizable macromer component; ii. at least one light reflective material component suspended in the photopolymerizable composition; and iii. at least one photoinitiator component; wherein the light reflective material component modulates the light dose requirement of the photopolymerizable composition when compared to the light dose requirement of the composition without the light reflective material; and i. at least one photopolymerizable macromer component; ii. at least one light reflective material component suspended in the photopolymerizable composition; and iii. at least one photoinitiator component; b) forming a printed article comprising at least polymerized macromers,
Closing assembly for containers of bottle and/or jar type, that allows to dispense a hermetically isolated additive into said container, the assembly comprising - a base body, having connecting means with the container, - an actuator, slidably connected to said base body between a closed position and a release position, - a removable cartridge, where the additive to be released is stored, said removable cartridge comprising a central compartment (4.d) within which the additive to be released is stored and a push-cut projectile, the removable cartridge further comprising at a lower portion (4.e) and at an upper portion (4.a) sealing membranes that seal hermetically the central compartment (4.d), wherein the base body and the cartridge have connecting means that enable their mutual detachable coupling, and wherein the closing assembly components are designed such that, when the cartridge is connected to the base body, the movement of the actuator to the release position causes a cross-shaped cut-push element (2.c) formed thereto to break the upper sealing membrane (4.a) thus entering the removable cartridge where it pushes in turn the replaceable push-cut projectile whose lower edge shaped as a pointed plunger (5.d) partially and centrally cuts the lower sealing membrane (4.e) allowing thereby to release the additive into the container. - a base body, having connecting means with the container, - an actuator, slidably connected to said base body between a closed position and a release position, - a removable cartridge, where the additive to be released is stored, said removable cartridge comprising a central compartment (4.d) within which the additive to be released is stored and a push-cut projectile, the removable cartridge further comprising at a lower portion (4.e) and at an upper portion (4.a) sealing membranes that seal hermetically the central compartment (4.d), wherein the base body and the cartridge have connecting means that enable their mutual detachable coupling, and wherein the closing assembly components are designed such that, when the cartridge is connected to the base body, the movement of the actuator to the release position causes a cross-shaped cut-push element (2.c) formed thereto to break the upper sealing membrane (4.a) thus entering the removable cartridge where it pushes in turn the replaceable push-cut projectile whose lower edge shaped as a pointed plunger (5.d) partially and centrally cuts the lower sealing membrane (4.e) allowing thereby to release the additive into the container.