mhurhangee/patent-ind-claim-en huggingface dataset:
A bearing element for carrying axial loads, the bearing element having an annular shape and comprising a first end surface , which is configured to be supported against an object that is stationary in relation to the bearing element , and a second end surface , which is configured to support a part rotating in relation to and coaxially with the bearing element , characterized in that the second end surface is provided with a concave portion , which runs along the circumference of the bearing element over the whole second end surface and that the depth of the concave portion is 0.005 to 0.05 mm in the middle of the concave portion .
A method for automatically determining at least one potential transmission region , comprising: acquiring multiple binary reception indications for a direct line of sight between a transmitter and at least one airborne vehicle respective of multiple geo-positions of said at least one airborne vehicle; acquiring each of said multiple geo-positions of said at least one airborne vehicle respective of each of said multiple binary reception indications for said direct lines of sight, for each one of said acquired geo-positions of said at least one airborne vehicle for said binary reception indication for said direct line of sight, determining a respective layer of access area respective of topographical elevation and location data for a geographical region, as a subset of said geographical region that includes at least one potential point of said geographical region defining potential lines of sight between said transmitter towards said at least one airborne vehicle at said one of said acquired geo-positions, thereby determining multiple layers of access; determining an overlap between said multiple layers of access; and determining, from said overlap, said at least one potential transmission region respective of said transmitter and each of said different geo-positions of said at least one airborne vehicle. acquiring multiple binary reception indications for a direct line of sight between a transmitter and at least one airborne vehicle respective of multiple geo-positions of said at least one airborne vehicle; acquiring each of said multiple geo-positions of said at least one airborne vehicle respective of each of said multiple binary reception indications for said direct lines of sight, for each one of said acquired geo-positions of said at least one airborne vehicle for said binary reception indication for said direct line of sight, determining a respective layer of access area respective of topographical elevation and location data for a geographical region, as a subset of said geographical region that includes at least one potential point of said geographical region defining potential lines of sight between said transmitter towards said at least one airborne vehicle at said one of said acquired geo-positions, thereby determining multiple layers of access; determining an overlap between said multiple layers of access; and determining, from said overlap, said at least one potential transmission region respective of said transmitter and each of said different geo-positions of said at least one airborne vehicle.
A system for processing semiconductor components, comprising a lifting device for a system part or a system module , which is attached laterally next to or below or above the system part or the system module , wherein the lifting device comprises a telescopic rail for horizontally moving the system part or system module , and wherein the telescopic rail comprises a movable rail that can be raised via wedges .
An apparatus comprising: a conduit box constructed to receive electrical conduits having a gauge suitable for use in an electric motor , the conduit box including: a housing having sidewalls that extend from a back plate to form an open interior and constructed from a non-metallic material of a composite construction having glass fibers which maintains thermosetting dimensional stability, the housing also including a partition wall structured to define a first voltage compartment and a second voltage compartment independent from one another within the open interior to segregate low voltage from high voltage circuits, the partition wall being integral with the back plate and the sidewalls , the partition wall including a wall that faces the first voltage compartment and another wall that faces the second voltage compartment , the back plate including an aperture that spans the partition wall to form a first through passage to the first voltage compartment and a second through passage to the second voltage compartment ; a cover plate sized to extend over the open interior to form an enclosed conduit box when affixed to at least one of the sidewalls ; and a gasket provided between the housing and the cover plate , wherein the gasket is nested in a lip formed around a periphery of the housing so as to be captured in place when the cover is affixed in place, and wherein the partition wall is of a height that the gasket is captured between the cover plate and a top of the partition wall so as to create sealed first and second voltage compartments which are sealed from one another and from outside environment. a housing having sidewalls that extend from a back plate to form an open interior and constructed from a non-metallic material of a composite construction having glass fibers which maintains thermosetting dimensional stability, the housing also including a partition wall structured to define a first voltage compartment and a second voltage compartment independent from one another within the open interior to segregate low voltage from high voltage circuits, the partition wall being integral with the back plate and the sidewalls , the partition wall including a wall that faces the first voltage compartment and another wall that faces the second voltage compartment , the back plate including an aperture that spans the partition wall to form a first through passage to the first voltage compartment and a second through passage to the second voltage compartment ; a cover plate sized to extend over the open interior to form an enclosed conduit box when affixed to at least one of the sidewalls ; and a gasket provided between the housing and the cover plate , wherein the gasket is nested in a lip formed around a periphery of the housing so as to be captured in place when the cover is affixed in place, and wherein the partition wall is of a height that the gasket is captured between the cover plate and a top of the partition wall so as to create sealed first and second voltage compartments which are sealed from one another and from outside environment.
Cutter for strip-like or tape-like materials of all types having an electromotor drive for two shearing blades which drives the shearing blades in a displaceable manner against a fixed knife , wherein the one shearing blade is designed as a vertically movable guillotine knife and in that the other shearing blade is designed as a pivot knife, wherein the electromotor drive (motor 3) acts in parallel on the movement drive of the two shearing blades which can be moved separately from one another and both execute a cutting movement against the fixed knife , wherein the electromotor drive is designed as a motor which drives a drive wheel in rotating manner, on which a carrier is arranged eccentrically to the rotational axis, characterised in that the carrier on the drive wheel engages at the same time in slotted guides of the two shearing blades and drives the latter together in a displaceable and/or pivotable manner.
A ground engaging tip for use in a tip assembly for a base edge of a ground engaging implement , wherein the tip assembly includes an adapter configured for attachment to the base edge of the ground engaging implement and having a forwardly extending adapter nose , the ground engaging tip comprising: a rear edge ; a top outer surface ; a bottom outer surface , wherein the top outer surface and the bottom outer surface extend forward from the rear edge of the ground engaging tip and converge at a front edge of the tip; and a nose cavity , within the ground engaging tip and defined between the converging top and bottom outer surfaces, for receiving an adapter nose of a tip assembly therein, the nose cavity including a wear indicator at a front end of the nose cavity and extending from an inner surface of the nose cavity, into the ground engaging tip , toward the bottom outer surface of the ground engaging tip, the nose cavity further including bottom and front inner surfaces and first and second side inner surfaces opposite first and second side outer surfaces of the tip respectively; characterised in that the wear indicator is located at an intersection of the bottom and front inner surfaces and centrally between the first and second side inner surfaces of the nose cavity, and the wear indicator is a small opening or an area of material that is different from the surrounding material of the ground engaging tip . a rear edge ; a top outer surface ; a bottom outer surface , wherein the top outer surface and the bottom outer surface extend forward from the rear edge of the ground engaging tip and converge at a front edge of the tip; and a nose cavity , within the ground engaging tip and defined between the converging top and bottom outer surfaces, for receiving an adapter nose of a tip assembly therein, the nose cavity including a wear indicator at a front end of the nose cavity and extending from an inner surface of the nose cavity, into the ground engaging tip , toward the bottom outer surface of the ground engaging tip, the nose cavity further including bottom and front inner surfaces and first and second side inner surfaces opposite first and second side outer surfaces of the tip respectively; characterised in that the wear indicator is located at an intersection of the bottom and front inner surfaces and centrally between the first and second side inner surfaces of the nose cavity, and the wear indicator is a small opening or an area of material that is different from the surrounding material of the ground engaging tip .
A method for coating a ceramic matrix composite part with an environmental barrier (5; 51; 53), the method comprising the following steps: a) applying, to the surface (S; S1) of the part, a coating composition comprising a first powder of a rare earth silicate and a second powder comprising boron, the coating composition having a ratio R = [mass of the second powder]/[mass of the first powder] of between 0.1% and 5%, and b) sintering the first and second powders in order to obtain the environmental barrier on the part. a) applying, to the surface (S; S1) of the part, a coating composition comprising a first powder of a rare earth silicate and a second powder comprising boron, the coating composition having a ratio R = [mass of the second powder]/[mass of the first powder] of between 0.1% and 5%, and b) sintering the first and second powders in order to obtain the environmental barrier on the part.
An apparatus for providing a sequence of output gains, wherein the sequence of output gains is suitable for attenuating a background signal of an audio signal, wherein the apparatus comprises: a signal characteristics provider configured to receive or to determine signal characteristics information on one or more characteristics of the audio signal, wherein the signal characteristics information depends on the background signal, wherein the signal characteristics information comprises a sequence of input gains which depends on the background signal and on a foreground signal of the audio signal; and a gain sequence generator configured to determine the sequence of output gains depending on the sequence of input gains; wherein, to determine the sequence of outputs gains, to modify a current gain value of a current gain of the sequence of output gains to a target gain value, the gain sequence generator is configured to determine a plurality of succeeding gains, which succeed the current gain in the sequence of output gains, by gradually changing the current gain value according to a modification rule during a transition period to the target gain value, wherein the modification rule depends on the signal characteristics information; and/or wherein the gain sequence generator is configured to determine the target gain value depending on a further one of the one or more signal characteristics in addition to the sequence of input gains. a signal characteristics provider configured to receive or to determine signal characteristics information on one or more characteristics of the audio signal, wherein the signal characteristics information depends on the background signal, wherein the signal characteristics information comprises a sequence of input gains which depends on the background signal and on a foreground signal of the audio signal; and a gain sequence generator configured to determine the sequence of output gains depending on the sequence of input gains; wherein, to determine the sequence of outputs gains, to modify a current gain value of a current gain of the sequence of output gains to a target gain value, the gain sequence generator is configured to determine a plurality of succeeding gains, which succeed the current gain in the sequence of output gains, by gradually changing the current gain value according to a modification rule during a transition period to the target gain value, wherein the modification rule depends on the signal characteristics information; and/or wherein the gain sequence generator is configured to determine the target gain value depending on a further one of the one or more signal characteristics in addition to the sequence of input gains.
A method for receiving downlink control information in a wireless communication system supporting Device-to-Device, D2D, communication, the method performed by a first user equipment, UE , and comprising: receiving, from a base station , the downlink control information for the D2D communication; transmitting, to a second UE, a D2D scheduling assignment, SA, for the D2D communication based on the downlink control information; and transmitting, to the second UE, a D2D data for the D2D communication based on the downlink control information, wherein the downlink control information comprises: a hopping flag field indicating whether frequency hopping is applicable when transmitting the D2D SA and the D2D data, a first resource allocation, RA, field including scheduling information for the D2D SA; a second RA field including a Resource Indication Value, RIV, indicating a starting resource block index for the D2D data transmission and length in terms of allocated resource blocks; a third RA field including information indicating a time resource pattern used for the D2D data transmission; and a single Transmission Power Control, TPC, field to be applied to both transmission power for the D2D SA and transmission power for the D2D data, and wherein the transmission power for the D2D SA and the transmission power for the D2D data are independently determined using individual power parameters based on the single TPC field. receiving, from a base station , the downlink control information for the D2D communication; transmitting, to a second UE, a D2D scheduling assignment, SA, for the D2D communication based on the downlink control information; and transmitting, to the second UE, a D2D data for the D2D communication based on the downlink control information, wherein the downlink control information comprises: a hopping flag field indicating whether frequency hopping is applicable when transmitting the D2D SA and the D2D data, a first resource allocation, RA, field including scheduling information for the D2D SA; a second RA field including a Resource Indication Value, RIV, indicating a starting resource block index for the D2D data transmission and length in terms of allocated resource blocks; a third RA field including information indicating a time resource pattern used for the D2D data transmission; and a single Transmission Power Control, TPC, field to be applied to both transmission power for the D2D SA and transmission power for the D2D data, and wherein the transmission power for the D2D SA and the transmission power for the D2D data are independently determined using individual power parameters based on the single TPC field.
A channel state reporting method for a terminal, the method comprising the steps of: receiving (S1920), from a base station , a feedback configuration information; measuring (S1930) a channel state using a reference signal received from the base station; generating (S1940) a precoding matrix indicator, PMI, including a first dimension PMI, W 1 , and a second dimension PMI, W 2 ; reporting (S1950), to the base station , rank indicator, RI, information and the W 1 , and characterized by the steps of: reporting (S1950) a first component of the second dimension PMI, W 21 , and a third component of the second dimension PMI, W 23 , using a first subsampling in a first reporting instance and reporting a second component of the second dimension PMI, W 22 , and the W 23 , using a second subsampling in a second reporting instance , wherein the first reporting instance and the second reporting instance are determined based on the feedback configuration information. receiving (S1920), from a base station , a feedback configuration information; measuring (S1930) a channel state using a reference signal received from the base station; generating (S1940) a precoding matrix indicator, PMI, including a first dimension PMI, W 1 , and a second dimension PMI, W 2 ; reporting (S1950), to the base station , rank indicator, RI, information and the W 1 , and characterized by the steps of: reporting (S1950) a first component of the second dimension PMI, W 21 , and a third component of the second dimension PMI, W 23 , using a first subsampling in a first reporting instance and reporting a second component of the second dimension PMI, W 22 , and the W 23 , using a second subsampling in a second reporting instance , wherein the first reporting instance and the second reporting instance are determined based on the feedback configuration information. reporting (S1950) a first component of the second dimension PMI, W 21 , and a third component of the second dimension PMI, W 23 , using a first subsampling in a first reporting instance and reporting a second component of the second dimension PMI, W 22 , and the W 23 , using a second subsampling in a second reporting instance , wherein the first reporting instance and the second reporting instance are determined based on the feedback configuration information.
Synthetic composite biomaterial comprising collagen, at least one organic polymer and at least one active ingredient, characterized in that : - the organic polymer is biodegradable, biocompatible, hydrophobic and has a glass transition temperature of less than or equal to 50°C, and an average molar mass ranging from 5 to 120 KDa, - the collagen is in the form of striated fibrils in which the periodicity of the striations is 67 nm, - the mass ratio of collagen/organic polymer ranges from 10/1 to 1/3, - the active principle is a hydrophobic active ingredient chosen from among anti-inflammatories, antibiotics, compounds that promote tissue repair or scarring and one of their mixtures. - the organic polymer is biodegradable, biocompatible, hydrophobic and has a glass transition temperature of less than or equal to 50°C, and an average molar mass ranging from 5 to 120 KDa, - the collagen is in the form of striated fibrils in which the periodicity of the striations is 67 nm, - the mass ratio of collagen/organic polymer ranges from 10/1 to 1/3, - the active principle is a hydrophobic active ingredient chosen from among anti-inflammatories, antibiotics, compounds that promote tissue repair or scarring and one of their mixtures.
A rotary machine comprising: a rotating shaft (103; 103C) that is configured to rotate around a center axis (C) by a rotation driving force input from an outside; a pair of radial bearings for rotatably supporting the rotating shaft (103; 103C) around the center axis (C); a thrust bearing for restraining movement of the rotating shaft (103; 103C) in a center axis direction; impellers fixed to the rotating shaft (103; 103C) at a position separated from the radial bearings in the center axis direction, and integrally rotating with the rotating shaft (103; 103C); and additional masses fixed to the rotating shaft (103; 103C) at positions separated from both the radial bearings and the impellers in the center axis direction, whereby the impellers are fixed to the rotating shaft on both outer sides in the center axis direction with respect to a space in which the pair of radial bearings are disposed, and characterized in that the additional masses are fixed to the rotating shaft (103; 103C) in the center axis direction between each impeller and the radial bearing that is adjacent to the impeller, and are applying a load to an entire circumference of the rotating shaft so as to move positions of amplitude increase regions where an amplitude of vibration in a radial direction of the rotating shaft starts to increase. a rotating shaft (103; 103C) that is configured to rotate around a center axis (C) by a rotation driving force input from an outside; a pair of radial bearings for rotatably supporting the rotating shaft (103; 103C) around the center axis (C); a thrust bearing for restraining movement of the rotating shaft (103; 103C) in a center axis direction; impellers fixed to the rotating shaft (103; 103C) at a position separated from the radial bearings in the center axis direction, and integrally rotating with the rotating shaft (103; 103C); and additional masses fixed to the rotating shaft (103; 103C) at positions separated from both the radial bearings and the impellers in the center axis direction, whereby the impellers are fixed to the rotating shaft on both outer sides in the center axis direction with respect to a space in which the pair of radial bearings are disposed, and characterized in that the additional masses are fixed to the rotating shaft (103; 103C) in the center axis direction between each impeller and the radial bearing that is adjacent to the impeller, and are applying a load to an entire circumference of the rotating shaft so as to move positions of amplitude increase regions where an amplitude of vibration in a radial direction of the rotating shaft starts to increase.