mhurhangee/patent-ind-claim-en huggingface dataset:
A system for an aircraft comprising: a fluid inlet ; a screen coupled to the fluid inlet , the screen comprising a first portion arranged as a grid and a second portion that is grid-free; and a cooler coupled to the screen , wherein: the first portion is located in a line-of-sight of the cooler with respect to the fluid inlet ; and the second portion is located out of the line-of-sight of the cooler with respect to the fluid inlet . a fluid inlet ; a screen coupled to the fluid inlet , the screen comprising a first portion arranged as a grid and a second portion that is grid-free; and a cooler coupled to the screen , wherein: the first portion is located in a line-of-sight of the cooler with respect to the fluid inlet ; and the second portion is located out of the line-of-sight of the cooler with respect to the fluid inlet . the first portion is located in a line-of-sight of the cooler with respect to the fluid inlet ; and the second portion is located out of the line-of-sight of the cooler with respect to the fluid inlet .
A linear electrical motor conveyor system comprising: a linear motor track comprising a first guide rail and a second guide rail , wherein the first guide rail has a shaped non-flat profile and the second guide rail has a flat profile; at least one moving element provided to the linear motor track comprising a first bearing having a shaped non-flat profile with a first bearing surface configured to engage the first guide rail and a second bearing having a flat profile with a second bearing surface configured to engage the second guide rail; and a lubrication system provided to one of the linear motor track and the at least one moving element and configured to provide a lubricant only between the first guide rail and the first bearing surface, wherein at least one of the first guide rail and the first bearing are a polymeric material at a point of contact between the first guide rail and the first bearing. a linear motor track comprising a first guide rail and a second guide rail , wherein the first guide rail has a shaped non-flat profile and the second guide rail has a flat profile; at least one moving element provided to the linear motor track comprising a first bearing having a shaped non-flat profile with a first bearing surface configured to engage the first guide rail and a second bearing having a flat profile with a second bearing surface configured to engage the second guide rail; and a lubrication system provided to one of the linear motor track and the at least one moving element and configured to provide a lubricant only between the first guide rail and the first bearing surface, wherein at least one of the first guide rail and the first bearing are a polymeric material at a point of contact between the first guide rail and the first bearing.
A speaker device comprising a frame , two opposite directed diaphragms , and two speaker drivers, each having at least one magnetic driver for driving the two opposite directed diaphragms in operation, further comprising two speaker dampers associated with the two opposite directed diaphragms , each of the two speaker dampers comprising a coil bracket arranged to be driven by the associated at least one magnetic driver , a diaphragm connection member arranged to fixedly attach the diaphragm to the speaker damper , and a damper frame connection member arranged to fixate the speaker damper to the frame , each of the two speaker dampers further comprising a damper leg member arranged between the diaphragm connection member and the damper frame connection member . two speaker dampers associated with the two opposite directed diaphragms , each of the two speaker dampers comprising a coil bracket arranged to be driven by the associated at least one magnetic driver , a diaphragm connection member arranged to fixedly attach the diaphragm to the speaker damper , and a damper frame connection member arranged to fixate the speaker damper to the frame , each of the two speaker dampers further comprising a damper leg member arranged between the diaphragm connection member and the damper frame connection member .
A radar system , comprising: - a transceiver configured to cyclically transmit a first radar signal into a field of view and to cyclically receive a second radar signal from the field of view , and - a processing unit configured to cyclically process the second radar signal , to thereby generate a detection track, given by a signal amplitude distribution as a function of the distance from the transceiver , and detect the presence of targets in the field of view from the detection track, - a marker located in a fixed position of the field of view of the transceiver , the marker being configured to receive the first radar signal and to transmit a diagnostic radar signal toward the transceiver as a function of the first radar signal , wherein the processing unit is further configured to: - store, before a current detection cycle, a predetermined diagnostic track, including at least a characteristic distance (Dc) from the transceiver and a characteristic signal amplitude, - check, when processing the second radar signal for the current detection cycle, whether the detection track includes a track portion in which a signal amplitude equal to the characteristic signal amplitude is assigned to the characteristic distance (Dc), recognize such track portion, if present, as the predetermined diagnostic track, determine, based on this check, whether the second radar signal contains the diagnostic radar signal , and to report a malfunction in the radar system in case the diagnostic radar signal is not contained in the second radar signal . - a transceiver configured to cyclically transmit a first radar signal into a field of view and to cyclically receive a second radar signal from the field of view , and - a processing unit configured to cyclically process the second radar signal , to thereby generate a detection track, given by a signal amplitude distribution as a function of the distance from the transceiver , and detect the presence of targets in the field of view from the detection track, - a marker located in a fixed position of the field of view of the transceiver , the marker being configured to receive the first radar signal and to transmit a diagnostic radar signal toward the transceiver as a function of the first radar signal , - store, before a current detection cycle, a predetermined diagnostic track, including at least a characteristic distance (Dc) from the transceiver and a characteristic signal amplitude, - check, when processing the second radar signal for the current detection cycle, whether the detection track includes a track portion in which a signal amplitude equal to the characteristic signal amplitude is assigned to the characteristic distance (Dc), recognize such track portion, if present, as the predetermined diagnostic track, determine, based on this check, whether the second radar signal contains the diagnostic radar signal , and to report a malfunction in the radar system in case the diagnostic radar signal is not contained in the second radar signal .
A support assembly for swivellably supporting a group of hydraulic lines , comprising: a plurality of rings fixedly mountable around respective hydraulic lines, each ring having external surfaces ; and a frame defining an opening configured to receive the plurality of rings therein, the frame having cooperative surfaces configured to contact and cooperate with the external surfaces of the rings to retain the plurality of rings within the opening and to secure the rings in an axial direction, the rings being adapted to rotate about respective longitudinal axes in response to torsional forces exerted on the hydraulic lines when the plurality of rings are mounted within the opening , wherein at least a first set of rings is positioned vertically within the opening and defines a vertical stack of rings . a plurality of rings fixedly mountable around respective hydraulic lines, each ring having external surfaces ; and a frame defining an opening configured to receive the plurality of rings therein, the frame having cooperative surfaces configured to contact and cooperate with the external surfaces of the rings to retain the plurality of rings within the opening and to secure the rings in an axial direction, the rings being adapted to rotate about respective longitudinal axes in response to torsional forces exerted on the hydraulic lines when the plurality of rings are mounted within the opening , wherein at least a first set of rings is positioned vertically within the opening and defines a vertical stack of rings .
A gas turbine engine comprising: a fan with a fan rotor rotating with a plurality of blades , the fan rotor driven by a fan shaft ; a low pressure compressor and a turbine section with a low pressure turbine , said low pressure turbine driving said low pressure compressor and said fan rotor through said fan shaft ; and at least one bearing between an inner static case and said fan shaft , and said inner static case being cantilever mounted to a static structure , and having a forward end spaced in a forward direction toward said fan rotor from a cantilever mount, and there being a damping assembly associated with said inner static case , said damping assembly including a damper positioned between said forward end of said inner static case and a bearing support structure supporting a first of said at least one bearing , with said damper being positioned radially intermediate said inner static case and said bearing support structure ; characterized in that said damper is a particle damper including a plurality of particles within a chamber , and air filling at least some percent of said chamber ; and in that said damping assembly further includes an elastic damping member positioned adjacent a rear end of said inner static case and adjacent said cantilever mount. a fan with a fan rotor rotating with a plurality of blades , the fan rotor driven by a fan shaft ; a low pressure compressor and a turbine section with a low pressure turbine , said low pressure turbine driving said low pressure compressor and said fan rotor through said fan shaft ; and at least one bearing between an inner static case and said fan shaft , and said inner static case being cantilever mounted to a static structure , and having a forward end spaced in a forward direction toward said fan rotor from a cantilever mount, and there being a damping assembly associated with said inner static case , said damping assembly including a damper positioned between said forward end of said inner static case and a bearing support structure supporting a first of said at least one bearing , with said damper being positioned radially intermediate said inner static case and said bearing support structure ; said damper is a particle damper including a plurality of particles within a chamber , and air filling at least some percent of said chamber ; and in that said damping assembly further includes an elastic damping member positioned adjacent a rear end of said inner static case and adjacent said cantilever mount.
A self-driving system , comprising: a mobile base for carrying packages having one or more motorized wheels , the mobile base having a first end and a second end opposing the first end ; a console coupled in an upright position to the first end of the mobile base ; one or more first sensors disposed at the mobile base , the one or more first sensors being suitable for detecting the presence of an object and measuring a distance from the object; one or more second sensors each disposed at a corner of the mobile base in a cutout extending around the mobile base , the one or more second sensors being suitable for detecting the presence of the object nearby and/or measure a distance between an object and the self-driving system , wherein each of the one or more second sensors has a field of view greater than 90 degrees; a positioning device being configured to communicate position information of the self-driving system to a remote server ; and a controller being configured to communicate with the one or more first sensors , the one or more second sensors , the positioning device , and the mobile base for control operation and autonomous movement of the self-driving system ; and the controller being further configured to control a movement and task to be performed by the self-driving system based at least in part on information received from the remote server ; characterized in that the self-driving system further comprises a tag reader integrated with the console , the tag reader having a sensor surface facing upwardly. a mobile base for carrying packages having one or more motorized wheels , the mobile base having a first end and a second end opposing the first end ; a console coupled in an upright position to the first end of the mobile base ; one or more first sensors disposed at the mobile base , the one or more first sensors being suitable for detecting the presence of an object and measuring a distance from the object; one or more second sensors each disposed at a corner of the mobile base in a cutout extending around the mobile base , the one or more second sensors being suitable for detecting the presence of the object nearby and/or measure a distance between an object and the self-driving system , wherein each of the one or more second sensors has a field of view greater than 90 degrees; a positioning device being configured to communicate position information of the self-driving system to a remote server ; and a controller being configured to communicate with the one or more first sensors , the one or more second sensors , the positioning device , and the mobile base for control operation and autonomous movement of the self-driving system ; and the controller being further configured to control a movement and task to be performed by the self-driving system based at least in part on information received from the remote server ; characterized in that the self-driving system further comprises a tag reader integrated with the console , the tag reader having a sensor surface facing upwardly.
Joint profile for separating portions of a floor covering made of a flooring material that is at least partially flow- or creep-resistant during processing and solidifies later, wherein the joint profile comprises: a first delimiting component (12.1) for delimiting the edge of a first floor-covering portion (B1), a second delimiting component (12.2) for delimiting the edge of a second floor-covering portion (B2) adjoining the first floor-covering portion (B1) in a joint region , wherein the first and the second delimiting component (12.1, 12.2) are arranged opposite one another and are coupled to one another so as to be non-displaceable vertically relative to one another, wherein the joint profile further comprises a cover , which is fixedly connectable to, yet detachable from, the first and/or the second delimiting component (12.1, 12.2), the cross-sectional shape of which cover tapers incrementally downwards at least in portions, and which cover is designed to cover the top of the joint region in the assembled state. a first delimiting component (12.1) for delimiting the edge of a first floor-covering portion (B1), a second delimiting component (12.2) for delimiting the edge of a second floor-covering portion (B2) adjoining the first floor-covering portion (B1) in a joint region , wherein the first and the second delimiting component (12.1, 12.2) are arranged opposite one another and are coupled to one another so as to be non-displaceable vertically relative to one another, wherein the joint profile further comprises a cover , which is fixedly connectable to, yet detachable from, the first and/or the second delimiting component (12.1, 12.2), the cross-sectional shape of which cover tapers incrementally downwards at least in portions, and which cover is designed to cover the top of the joint region in the assembled state.
A method for operating a pseudorandom number generator on a mobile computing device, the method comprising: collecting raw sensor data from at least one sensor associated with the mobile computing device; selecting a subset of the raw sensor data based on: compressing the raw sensor data using a lossy compression technique to obtain a lossy compressed sensor data output; and selecting , for inclusion in the subset, portions of the raw sensor data that are not included in the lossy compressed sensor data output; applying a one-way cryptographic compression on the selected subset to obtain a first compressed output; retrieving a first representation of accumulated entropy associated with one or more previously acquired raw sensor data sets for the at least one sensor; and generating a seed for a pseudorandom number generator based on combining the first representation and the first compressed output. collecting raw sensor data from at least one sensor associated with the mobile computing device; selecting a subset of the raw sensor data based on: compressing the raw sensor data using a lossy compression technique to obtain a lossy compressed sensor data output; and selecting , for inclusion in the subset, portions of the raw sensor data that are not included in the lossy compressed sensor data output; compressing the raw sensor data using a lossy compression technique to obtain a lossy compressed sensor data output; and selecting , for inclusion in the subset, portions of the raw sensor data that are not included in the lossy compressed sensor data output; applying a one-way cryptographic compression on the selected subset to obtain a first compressed output; retrieving a first representation of accumulated entropy associated with one or more previously acquired raw sensor data sets for the at least one sensor; and generating a seed for a pseudorandom number generator based on combining the first representation and the first compressed output.
A tie coat structure comprising a plurality of layers, wherein a first of the layers comprises a thermoplastic polymer, a second of the layers comprises glass, and a third of the layers comprises silicone, wherein the second layer is provided between the first and third layers; wherein the glass comprises any of: single ply glass, stitched glass, woven glass, glass fibre, glass mat reinforced thermoplastics or combinations thereof.
A fault-tolerant cryogenically cooled system comprising: - an outer vacuum chamber defining a vacuum region in its interior volume; - a cryogenic refrigerator ; - equipment to be cooled, housed within the vacuum region; - a free volume delimited within the vacuum region and containing a cryogen ; - a cold plate exposed to the free volume and thermally linked to the equipment to be cooled; - a heat exchanger thermally linked to a coldest stage of the cryogenic refrigerator and exposed to the free volume; - a cryogen buffer vessel delimiting a buffer volume ; and - a passage linking the buffer volume with the free volume, characterised by the cryogen buffer vessel and the passage being arranged such that, during failure of the cryogenic refrigerator ,some of the mass of cryogen will flow through the passage into the buffer volume of the cryogen buffer vessel . - an outer vacuum chamber defining a vacuum region in its interior volume; - a cryogenic refrigerator ; - equipment to be cooled, housed within the vacuum region; - a free volume delimited within the vacuum region and containing a cryogen ; - a cold plate exposed to the free volume and thermally linked to the equipment to be cooled; - a heat exchanger thermally linked to a coldest stage of the cryogenic refrigerator and exposed to the free volume; - a cryogen buffer vessel delimiting a buffer volume ; and - a passage linking the buffer volume with the free volume,
A tire having a tread comprising at least two radially superposed portions which comprise a radially external portion intended to come into contact with ground during rolling, the radially external portion being made of a first rubber composition, and a radially internal portion made of a second rubber composition which is different from the first rubber composition; wherein the first rubber composition is based on at least: - an elastomer matrix; and - a reinforcing filler comprising between 40 and 200 phr of a reinforcing inorganic filler; wherein the second rubber composition is based on at least: - an elastomer matrix comprising 20 to 70 phr of a first diene elastomer bearing at least one SiOR function, R being a hydrogen atom or a hydrocarbon radical, 20 to 70 phr of a second diene elastomer which is polyisoprene, and comprising no third diene elastomer or equal to or less than 20 phr of a third diene elastomer; - a reinforcing filler comprising a reinforcing inorganic filler. - an elastomer matrix; and - a reinforcing filler comprising between 40 and 200 phr of a reinforcing inorganic filler; - an elastomer matrix comprising 20 to 70 phr of a first diene elastomer bearing at least one SiOR function, R being a hydrogen atom or a hydrocarbon radical, 20 to 70 phr of a second diene elastomer which is polyisoprene, and comprising no third diene elastomer or equal to or less than 20 phr of a third diene elastomer; - a reinforcing filler comprising a reinforcing inorganic filler.
A shoe comprising a sole , to which an upper of the shoe is attached, and on whose upper side there is mounted an insole, wherein the upper of the shoe in an area of the instep of the foot comprises at least one instep elastic insertion , wherein the instep elastic insertion is incorporated in the upper and extends over the instep from one side of the shoe to the opposite side of the shoe over the upper section of the instep , whereby the instep elastic insertion is adapted to reduce pressure of the upper of the shoe on the instep of the foot, and the insole on its top side comprises at least a depression for the big toe joint and a depression or lowering for the heel bone, wherein the upper of the shoe further comprises at least on one side of the shoe in an area of the ankle of the foot, an ankle elastic insertion to reduce the pressure on the heel or Achilles tendon.