mhurhangee/ep-ind-claims huggingface dataset:
A sensor unit (5, 103) for an undersea seismic sensor array, the sensor unit comprising: a housing (17, 112) enclosing a number of sensors; a cavity characterized in that it further comprises a connecting cable (6, 104) removably received in the cavity; first connecting means for connecting a first end of the connecting cable (6, 104) to the sensors; second connection means for connecting the first end of the connecting cable to a second end of a connecting cable of another like sensor unit. a housing (17, 112) enclosing a number of sensors; a cavity characterized in that it further comprises a connecting cable (6, 104) removably received in the cavity; first connecting means for connecting a first end of the connecting cable (6, 104) to the sensors; second connection means for connecting the first end of the connecting cable to a second end of a connecting cable of another like sensor unit.
An undercoat foil for an energy storage device electrode, comprising a current-collecting substrate and an undercoat layer formed on at least one side of the current-collecting substrate, characterized in that the undercoat layer includes carbon nanotubes and has a coating weight per side of the current-collecting substrate of at least 0.001 g/m 2 and less than 0.05 g/m 2.
Method for determining an authorization for implementing a composite resource, said composite resource comprising at least two resources, said method being implemented within a blockchain and being characterized in that it comprises: - a step of receiving (POll), by a smart contract (Ctrt1) of the blockchain, called composite contract, a request (Quer) from a requesting entity ENT wishing to obtain an authorization for implementing the composite resource; - a step of obtaining, by the composite contract (Ctrt1), at least one address (@2,...) of at least one smart contract (Ctrt2,...) within a blockchain, said at least one smart contact (Ctrt2,...) being associated with at least one resource comprised in said composite resource; and, for each smart contract (Ctrt2,...) - a step of transmitting (POlla) an authorization request for implementing the resource associated with this smart contact (Ctrt2,...); and - a step of receiving (POllb) a result provided by this smart contact (Ctrt2,...); - a step of compiling (P011c) the results from said at least one smart contract (Ctrt2,...) delivering a result (Resp) that is representative of the authorization for implementing the composite resource. - a step of receiving (POll), by a smart contract (Ctrt1) of the blockchain, called composite contract, a request (Quer) from a requesting entity ENT wishing to obtain an authorization for implementing the composite resource; - a step of obtaining, by the composite contract (Ctrt1), at least one address (@2,...) of at least one smart contract (Ctrt2,...) within a blockchain, said at least one smart contact (Ctrt2,...) being associated with at least one resource comprised in said composite resource; and, for each smart contract (Ctrt2,...) - a step of transmitting (POlla) an authorization request for implementing the resource associated with this smart contact (Ctrt2,...); and - a step of receiving (POllb) a result provided by this smart contact (Ctrt2,...); - a step of compiling (P011c) the results from said at least one smart contract (Ctrt2,...) delivering a result (Resp) that is representative of the authorization for implementing the composite resource. - a step of transmitting (POlla) an authorization request for implementing the resource associated with this smart contact (Ctrt2,...); and - a step of receiving (POllb) a result provided by this smart contact (Ctrt2,...); - a step of compiling (P011c) the results from said at least one smart contract (Ctrt2,...) delivering a result (Resp) that is representative of the authorization for implementing the composite resource.
A method for producing an annular-shaped cage for a rolling bearing assembly, the method comprising the steps of: - providing a workpiece (1, 20) contained in a plane having a first side and a second side; - forming an annular-shaped cage from the workpiece (1, 20), the annular-shaped cage having a U-shaped cross section such that portions of the first side of the workpiece (1, 20) face each other and further the annular-shaped cage presents a first and a second rim portion (6, 6'; 23, 23'); and forming a plurality of windows (7, 7', 25, 25') in the workpiece (1, 20) for receiving and positioning a set of rolling elements, characterized in that, the first rim portion (6, 23) forms an inner diameter and the second rim portion (6', 23') forms an outer diameter of the annular-shaped cage. - providing a workpiece (1, 20) contained in a plane having a first side and a second side; - forming an annular-shaped cage from the workpiece (1, 20), the annular-shaped cage having a U-shaped cross section such that portions of the first side of the workpiece (1, 20) face each other and further the annular-shaped cage presents a first and a second rim portion (6, 6'; 23, 23'); and forming a plurality of windows (7, 7', 25, 25') in the workpiece (1, 20) for receiving and positioning a set of rolling elements, characterized in that, the first rim portion (6, 23) forms an inner diameter and the second rim portion (6', 23') forms an outer diameter of the annular-shaped cage.
Optical observation device with at least one visual observation beam path, which has at least - an objective lens that is, in an operating position, intended to face a target object to be observed and images the target object, - an eyepiece intended to face an eye of an observer, - an Abbe-Koenig prism system, Porro prism system or Schmidt-Pechan prism system, arranged in the at least one visual observation beam path between the objective lens and the eyepiece, for image inversion of the at least one visual observation beam path, - a display device for displaying an additional image in the visual observation beam path to the observer, and - a device for image superposition, which has a holographic optical element and which uses the holographic optical element to superpose onto the image of the display device the image of the target object to be observed in an intermediate image plane (7a', 7b', 7a", 7b", 15a', 15a", 15a''', 16a', 16b') of the visual observation beam path, wherein the Abbe-Koenig prism system, the Porro prism system or the Schmidt-Pechan prism system is provided with the at least one holographic optical element of the at least one device for image superposition, wherein the Abbe-Koenig prism system, the Porro prism system or the Schmidt-Pechan prism system has a light entrance face (7a", 7b", 15a", 16a', 16b') for observation light, wherein the light entrance face (7a", 7b", 15a", 16a', 16b') is provided with the holographic optical element and wherein the holographic optical element is transmissive both for light from the display device and for light from the target object. - an objective lens that is, in an operating position, intended to face a target object to be observed and images the target object, - an eyepiece intended to face an eye of an observer, - an Abbe-Koenig prism system, Porro prism system or Schmidt-Pechan prism system, arranged in the at least one visual observation beam path between the objective lens and the eyepiece, for image inversion of the at least one visual observation beam path, - a display device for displaying an additional image in the visual observation beam path to the observer, and - a device for image superposition, which has a holographic optical element and which uses the holographic optical element to superpose onto the image of the display device the image of the target object to be observed in an intermediate image plane (7a', 7b', 7a", 7b", 15a', 15a", 15a''', 16a', 16b') of the visual observation beam path, wherein the Abbe-Koenig prism system, the Porro prism system or the Schmidt-Pechan prism system is provided with the at least one holographic optical element of the at least one device for image superposition, wherein the Abbe-Koenig prism system, the Porro prism system or the Schmidt-Pechan prism system has a light entrance face (7a", 7b", 15a", 16a', 16b') for observation light, wherein the light entrance face (7a", 7b", 15a", 16a', 16b') is provided with the holographic optical element and wherein the holographic optical element is transmissive both for light from the display device and for light from the target object.
Use of a catalyst in a method of reducing a substrate, the method comprising contacting a substrate with a catalyst, optionally in the presence of a co-substrate, thereby to generate a reduced substrate, wherein the catalyst is a polypeptide comprising an amino acid sequence having at least 70% identity to SEQ ID NO: 7, and wherein in the method the substrate concentration is at least 50 mM.
A digital dispense system for preparing and analyzing a plurality of samples, comprising: two or more fluid droplet ejection devices (14A-14C), each fluid droplet ejection device containing a fluid droplet ejection cartridge containing at least one fluid to be dispensed and a translation mechanism, the fluid droplet ejection cartridge being attached to said translation mechanism for moving the fluid droplet ejection cartridge back and forth over a sample holder in an x direction, and a sample tray translation mechanism for moving a sample tray along a production path in a y direction orthogonal to the x direction through the each of the two or more fluid droplet ejection devices, wherein the sample tray translation mechanism comprises at least one track edge containing triangular teeth for intermeshing with a gear of a stepping motor. two or more fluid droplet ejection devices (14A-14C), each fluid droplet ejection device containing a fluid droplet ejection cartridge containing at least one fluid to be dispensed and a translation mechanism, the fluid droplet ejection cartridge being attached to said translation mechanism for moving the fluid droplet ejection cartridge back and forth over a sample holder in an x direction, and a sample tray translation mechanism for moving a sample tray along a production path in a y direction orthogonal to the x direction through the each of the two or more fluid droplet ejection devices, wherein the sample tray translation mechanism comprises at least one track edge containing triangular teeth for intermeshing with a gear of a stepping motor.
A clutch mechanism for torque transfer from a motor to a first shaft and/or to a second shaft in a motorized vehicle and which can rotate around a rotation axis and comprising a clutch cover and a first clutch part having a first separation means for separating the first clutch part and adapted to transfer torque to the first shaft and a second clutch part having a second separation means for separating the second clutch part and adapted to transfer torque to the second shaft and at least one first side wall and at least one second side wall provided on said clutch cover; the first separation means comprises a first lever placed between the first side wall and a middle wall and a first pin provided rotatably on the first lever, and the second separation means comprises a second lever placed between the second side wall and the middle wall and a second pin provided rotatably on the second lever, wherein at least one of the first pin and the second pin is connected to the middle wall, and characterized in that at least one of the first pin and the second pin comprises a threaded end on the sides thereof connected to the middle wall.
A method, performed by a network node, for handling of specific power reduction for a User Equipment, UE,, wherein the method comprises: - receiving, from the UE, a message comprising an identification of a specific type of the UE, wherein the identification is based on an International Mobile station Equipment Identity Software Version, IMEISV; - obtaining a reduced power applied by the UE corresponding to the received identification, and wherein the obtaining comprises: ∘ receiving, from the UE, a report comprising information regarding the available power headroom for an allocation of the UE and a maximum power for the allocation, wherein the report is received in an extended Power Headroom Report, ePHR, ∘ determining the reduced power applied by the UE based on the received available power headroom and the maximum power for the allocation, wherein the obtaining further comprises: ∘ storing, the information about the reduced power for the UE type indicated by the identification and for the corresponding allocation, and when a power reduction information is available to the network node for the received UE identification and a current UE allocation: ∘ retrieving the information about the reduced power for the current allocation of the UE, wherein the method further comprises: - selecting an allocation for transmissions from the UE, based on the obtained reduced power applied by the UE corresponding to the received identification. - receiving, from the UE, a message comprising an identification of a specific type of the UE, wherein the identification is based on an International Mobile station Equipment Identity Software Version, IMEISV; - obtaining a reduced power applied by the UE corresponding to the received identification, and wherein the obtaining comprises: ∘ receiving, from the UE, a report comprising information regarding the available power headroom for an allocation of the UE and a maximum power for the allocation, wherein the report is received in an extended Power Headroom Report, ePHR, ∘ determining the reduced power applied by the UE based on the received available power headroom and the maximum power for the allocation, wherein the obtaining further comprises: ∘ storing, the information about the reduced power for the UE type indicated by the identification and for the corresponding allocation, and when a power reduction information is available to the network node for the received UE identification and a current UE allocation: ∘ retrieving the information about the reduced power for the current allocation of the UE, ∘ receiving, from the UE, a report comprising information regarding the available power headroom for an allocation of the UE and a maximum power for the allocation, wherein the report is received in an extended Power Headroom Report, ePHR, ∘ determining the reduced power applied by the UE based on the received available power headroom and the maximum power for the allocation, - selecting an allocation for transmissions from the UE, based on the obtained reduced power applied by the UE corresponding to the received identification.
An image forming apparatus comprising: a main body; an imaging cartridge comprising a photoreceptor, a development chamber, and a development roller to supply toner from the development chamber to the photoreceptor to develop an electrostatic latent image on the photoreceptor, wherein the imaging cartridge is detachable from the main body; a toner cartridge to contain toner; and a first optical sensor mounted in the imaging cartridge to detect a toner level in the development chamber; characterised by comprising a second optical sensor mounted in the toner cartridge to detect a toner level in the development chamber. a main body; an imaging cartridge comprising a photoreceptor, a development chamber, and a development roller to supply toner from the development chamber to the photoreceptor to develop an electrostatic latent image on the photoreceptor, wherein the imaging cartridge is detachable from the main body; a toner cartridge to contain toner; and a first optical sensor mounted in the imaging cartridge to detect a toner level in the development chamber; characterised by comprising a second optical sensor mounted in the toner cartridge to detect a toner level in the development chamber.
Method for the production of an edible object, comprising providing an edible powder composition and at least one edible liquid, wherein the edible powder composition comprises a water soluble protein, a hydrocolloid and a plasticizer, and subjecting said composition to powder bed printing by depositing the edible liquid onto the powder in layer-wise manner and thereby obtaining the edible object, wherein the plasticizer comprises polydextrose or maltodextrin.
A method for preventing acoustic shock in a portable communication device, hereinafter PCD, comprising providing in the PCD a plurality of audio streams including a telephony audio stream and at least a second audio stream; reproducing the second audio stream using a loudspeaker in the PCD having a high capacity audio output capability; responsive to the occurrence of a telephony session, re-routing the second audio stream from the loudspeaker to a handset speaker in the PCD having a low capacity audio output capability, and reproducing the telephony audio stream and the second audio stream using the handset speaker; upon termination of the telephony session, re-routing the second audio stream from the handset speaker to the loudspeaker; subsequent to the re-routing the second audio stream gradually increasing an audio output drive level of the second audio stream over a period of time in accordance with a predetermined ramp function until the audio output drive level of the second audio stream corresponds with the predetermined output drive level setting for the second audio stream; and during said period of time, selectively reproducing with the loudspeaker a series of warning tones at the audio output drive level for the second audio stream as determined by the predetermined ramp function; wherein the second audio stream is discontinuous so as to include one or more intervals of audio content and intervals of silence, and wherein the method further comprises selectively reproducing the warning tones with the loudspeaker only during the intervals of silence.
A rotational joint assembly comprising a rotational joint for rotatably coupling a wing tip device to a fixed wing, to allow the wing tip device to rotate relative to the fixed wing between: • a flight configuration for use during flight, and • a ground configuration for use during ground-based operations, in which ground configuration the wing tip device is rotated relative to the fixed wing such that the span of the wing is reduced, the rotational joint comprising an outer race and an inner race configured such that the inner and outer races are rotatable relative to each other, one of the inner and outer races is for being rotationally fixed relative to the wing tip device and the other is for being rotationally fixed relative to the fixed wing such that as the wing tip device rotates relative to the fixed wing, the race that is rotationally fixed relative to the wing tip device is rotated, relative to the race that is rotationally fixed relative to the fixed wing, about a rotational axis, the rotational joint assembly further comprising a rotational drive member for coupling to an actuator so as to be rotated by the actuator, the rotational drive member and the race that is for being rotationally fixed relative to the wing tip device each being provided with a coupling section (110, 111, 114), the coupling sections being coupled to each other by a coupling member, that is received in a bore (112, 113, 115) in one of the coupling sections, such that rotation of the drive member rotates the race that is for being rotationally fixed relative to the wing tip device, to rotate the wing tip device from one configuration to the other, wherein the coupling member is mounted in the bore such that it is movable radially within the bore. • a flight configuration for use during flight, and • a ground configuration for use during ground-based operations, in which ground configuration the wing tip device is rotated relative to the fixed wing such that the span of the wing is reduced,
A method for manufacturing a high manganese hot-dip galvanized steel sheet, the method comprising: cold rolling a hot-rolled steel sheet at a reduction ratio of 30% to 60% to form a cold-rolled steel sheet, the hot-rolled steel sheet consisting of, by wt%, carbon: 0.3% to 1%, manganese (Mn): 8% to 25%, silicon (Si): 0.1% to 3%, aluminum (Al): 0.01% to 8%, chromium (Cr): 0.1% to 2%, titanium (Ti): 0.01% to 0.2%, boron: 0.0005% to 0.01%, nickel (Ni): 0.01% to 2%, tin (Sn): 0.06% to 0.2%, and a balance of iron (Fe) and inevitable impurities; heating the cold-rolled steel sheet under conditions of a dew point temperature ranging from -30°C to -80°C and a heating temperature ranging from 450°C to 650°C; cooling the heated steel sheet to, or maintaining the heated steel sheet at, a temperature within a range of 450°C to 500°C; and performing a hot-dip galvanizing process on the cooled or temperature-maintained steel sheet by dipping the cooled or temperature-maintained steel sheet into a hot-dip galvanizing bath containing aluminum (Al) in an amount of 0.13 wt% to 0.25 wt% and maintained at a temperature of 450°C to 500°C. cold rolling a hot-rolled steel sheet at a reduction ratio of 30% to 60% to form a cold-rolled steel sheet, the hot-rolled steel sheet consisting of, by wt%, carbon: 0.3% to 1%, manganese (Mn): 8% to 25%, silicon (Si): 0.1% to 3%, aluminum (Al): 0.01% to 8%, chromium (Cr): 0.1% to 2%, titanium (Ti): 0.01% to 0.2%, boron: 0.0005% to 0.01%, nickel (Ni): 0.01% to 2%, tin (Sn): 0.06% to 0.2%, and a balance of iron (Fe) and inevitable impurities; heating the cold-rolled steel sheet under conditions of a dew point temperature ranging from -30°C to -80°C and a heating temperature ranging from 450°C to 650°C; cooling the heated steel sheet to, or maintaining the heated steel sheet at, a temperature within a range of 450°C to 500°C; and performing a hot-dip galvanizing process on the cooled or temperature-maintained steel sheet by dipping the cooled or temperature-maintained steel sheet into a hot-dip galvanizing bath containing aluminum (Al) in an amount of 0.13 wt% to 0.25 wt% and maintained at a temperature of 450°C to 500°C.
A weight applicator, comprising: a weight applicator head adapted to carry a wheel balance weight, the weight applicator head having weight application surface with a weight retaining region and a leading rotation region; at least one actuator coupled to the weight applicator head for manipulating the weight applicator head in at least one direction, the at least one direction having an arcuate component; and characterised in that the leading rotation region is oriented to extend radially further than the weight retaining region. a weight applicator head adapted to carry a wheel balance weight, the weight applicator head having weight application surface with a weight retaining region and a leading rotation region; at least one actuator coupled to the weight applicator head for manipulating the weight applicator head in at least one direction, the at least one direction having an arcuate component; and characterised in that the leading rotation region is oriented to extend radially further than the weight retaining region.
A method of controlling blade pitch angle of a set of rotor blades, comprising: • providing a target blade pitch angle to a controller mounted on the rotor; • measuring the speed of rotation of the rotor using a rate gyro mounted on the rotor; • calculating the blade pitch angle required to match the target blade pitch angle by summing the target blade pitch angle and the measured rotational speed; and • actuating the blades to the calculated blade pitch angle. • providing a target blade pitch angle to a controller mounted on the rotor; • measuring the speed of rotation of the rotor using a rate gyro mounted on the rotor; • calculating the blade pitch angle required to match the target blade pitch angle by summing the target blade pitch angle and the measured rotational speed; and • actuating the blades to the calculated blade pitch angle.