mhurhangee/ep-ind-claims huggingface dataset:
A thin film gas sensor device comprising: a substrate; a first electrode supported by the substrate; a second electrode supported by the substrate; and a gas-sensitive structure supported by the substrate and electrically connected to the first and second electrodes, the gas sensitive structure including a plurality of thin film layers (140, 144) of a first material vertically interleaved with a plurality of thin film layers (140, 144) of a second material, wherein the first plurality of thin film layers (140, 144) is formed from tin dioxide and the second plurality of thin film layers (140, 144) is formed from lanthanum oxide, each layer of the first plurality of thin film layers (140, 144) defines a first thickness, each layer of the second plurality of thin film layers (140, 144) defines a second thickness, the first thickness is five percent to eighty percent of the second thickness, a gas-sensitive portion of the gas sensitive structure includes a plurality of digits that are horizontally interleaved with each other, the gas sensitive structure includes a serpentine-shaped trench and numerous digit trenches that each extend through the gas-sensitive structure and define at least some digits of the plurality of horizontally interleaved digits, the gas sensitive structure is a unitary element through which electrical current is configured to flow between the first and second electrodes, and both an exterior surface and an interior surface of the digits defining the digit trenches contribute to an exposed area of interfaces of the vertically interleaved thin film layers (140, 144). a substrate; a first electrode supported by the substrate; a second electrode supported by the substrate; and a gas-sensitive structure supported by the substrate and electrically connected to the first and second electrodes, the gas sensitive structure including a plurality of thin film layers (140, 144) of a first material vertically interleaved with a plurality of thin film layers (140, 144) of a second material, wherein the first plurality of thin film layers (140, 144) is formed from tin dioxide and the second plurality of thin film layers (140, 144) is formed from lanthanum oxide, each layer of the first plurality of thin film layers (140, 144) defines a first thickness, each layer of the second plurality of thin film layers (140, 144) defines a second thickness, the first thickness is five percent to eighty percent of the second thickness, a gas-sensitive portion of the gas sensitive structure includes a plurality of digits that are horizontally interleaved with each other, the gas sensitive structure includes a serpentine-shaped trench and numerous digit trenches that each extend through the gas-sensitive structure and define at least some digits of the plurality of horizontally interleaved digits, the gas sensitive structure is a unitary element through which electrical current is configured to flow between the first and second electrodes, and both an exterior surface and an interior surface of the digits defining the digit trenches contribute to an exposed area of interfaces of the vertically interleaved thin film layers (140, 144).
A non-volatile memory device, comprising: an interface operable for receiving a read command and a read status request from a host controller coupled to the NVM device; a number of concurrently addressable units each containing a number of blocks, wherein each concurrently addressable unit is configured to be simultaneously readable with respect to the other concurrently addressable memory units, and wherein the read command specifies one or more blocks of one or more of the concurrently addressable memory units from which to read data; a controller coupled to the interface and the number of concurrently addressable units, the controller operable for: reading data from the one or more blocks of the number of concurrently addressable units specified by the read command; storing the data from the one or more blocks in a storage buffer; error correcting a portion of the data in the storage buffer; making the error corrected portion of the data available for transferring to the host controller prior to making another portion of the data available for transfer; and responding to the read status request with information indicating that the error corrected portion of the data is available for transfer. an interface operable for receiving a read command and a read status request from a host controller coupled to the NVM device; a number of concurrently addressable units each containing a number of blocks, wherein each concurrently addressable unit is configured to be simultaneously readable with respect to the other concurrently addressable memory units, and wherein the read command specifies one or more blocks of one or more of the concurrently addressable memory units from which to read data; a controller coupled to the interface and the number of concurrently addressable units, the controller operable for: reading data from the one or more blocks of the number of concurrently addressable units specified by the read command; storing the data from the one or more blocks in a storage buffer; error correcting a portion of the data in the storage buffer; making the error corrected portion of the data available for transferring to the host controller prior to making another portion of the data available for transfer; and responding to the read status request with information indicating that the error corrected portion of the data is available for transfer. reading data from the one or more blocks of the number of concurrently addressable units specified by the read command; storing the data from the one or more blocks in a storage buffer; error correcting a portion of the data in the storage buffer; making the error corrected portion of the data available for transferring to the host controller prior to making another portion of the data available for transfer; and responding to the read status request with information indicating that the error corrected portion of the data is available for transfer.
Method for manufacturing a heating mat that comprises two partial mats (25,26) of incompletely cured thermosetting plastic, the heating mat further comprises an article of electrically conductive material which is arranged between the partial mats (25,26) and which is produced by a knitting or crocheting operation using wire or tape, finally curing the heating mat by applying regulated electrical current to the article.
A rotor locking device for locking a rotational position of a rotor shaft in a crusher, the locking device including a shaft engager comprised of: a first mating surface, for coaxial engagement with a second mating surface at an end of the rotor shaft, the first mating surface having multiple rotational mating positions with the second mating surface to become rotationally interlocked therewith; and characterised by a fastening portion extending radially outward at shaft engager for, in use, overlapping with a bearing mount surrounding the rotor shaft and being fastenable therewith. a first mating surface, for coaxial engagement with a second mating surface at an end of the rotor shaft, the first mating surface having multiple rotational mating positions with the second mating surface to become rotationally interlocked therewith; and characterised by a fastening portion extending radially outward at shaft engager for, in use, overlapping with a bearing mount surrounding the rotor shaft and being fastenable therewith.
An applicator unit for applying a cosmetic, comprising a heating member, a cosmetic which is stored in the applicator unit and can be liquefied by a heating member upon demand, and an applicator preferably bearing a bristle covering, characterized in that the heating member is a heated tube member with a perforated jacket, through whose perforations the cosmetic liquefied under the influence of the heat at the outer circumference of the tube member can enter the interior of the tube member in such a way that it loads the applicator disposed in the interior of the tube member.
Rail vehicle with a roof air-conditioning channel, which is arranged under a roof panel of the rail vehicle, characterized in that the roof panel is made up of individual extruded sections, which run in the longitudinal direction of the rail vehicle and adjoin one another transversely in relation to the rail vehicle, integrated in the roof panel are two downwardly projecting webs, which extend parallel to one another in the longitudinal direction of the rail vehicle, are provided on an underside of two of the extruded sections and form at least a portion of side walls of the roof air-conditioning channel, wherein a portion of the roof panel extending between the webs in the transverse direction of the rail vehicle forms a top of the roof air-conditioning channel and the roof air-conditioning channel has an elongated bottom element, which adjoins the webs in an airtight manner.
A composition comprising tempol, cholecalciferol, calcidiol or calcitriol, or tempo or 4-amino tempo, a pharmaceutically-acceptable salt of the foregoing, or combinations thereof for use in reducing a number of, a growth rate of, or both, of cerebral cavernous malformation lesions.
A set of at least two roof panels (1, 1a, 1b, 100) which are mutually adjacent or which can at least be mounted mutually adjacently, each having an at least substantially rectangular peripheral form with a longitudinal direction and a transverse direction, each roof panel (1, 1a, 1b, 100) comprising a solar panel, a watertight plate element (3, 103) extending under and at a distance from the solar panel and attaching means with which the solar panel and the plate element are mutually attached or at least attachable, wherein a first plate element associated with at least a first roof panel is provided with a first longitudinal profile (11, 111) on a longitudinal side facing at least in mounted position toward a second roof panel and a second plate element associated with the second roof panel is provided with a second longitudinal profile (12, 112) on a longitudinal side facing at least in mounted position toward the first roof panel, and wherein an at least substantially watertight seal is realized when the first longitudinal profile (11, 111) and the second longitudinal profile (12, 112) are mounted overlapping each other, characterized in that the first and second plate elements (3, 103) are configured for the purpose of adjusting the degree of overlap of the two longitudinal profiles, such that the degree of overlap, at least in a width direction of the plate elements (3, 103), between a first longitudinal profile (11, 111) of said first plate element of said first roof panel and said second longitudinal profile (12, 112) of said second plate element of said second roof panel can be selected and adjusted up to a determined limit value.
A method of wireless communications comprising: receiving, during a first period of a handshake sequence, a request for a dynamically reserved time block of an unreserved channel time block for directional communication in a wireless personal area network, WPAN, wherein the handshake sequence has a start time corresponding to initiation of the first period; transmitting, during a second period of the handshake sequence, using omni-directional transmission, a grant of the dynamically reserved time block of the unreserved channel time block in response to the request; and scheduling at least part of the dynamically reserved time block of the unreserved channel time block for other directional communications, at least one of the other directional communications being non-interfering with the directional communication; wherein said receiving, said transmitting, and the dynamically reserved time block of the unreserved channel time block all occur between two consecutive beacons pertaining to said WPAN; wherein the dynamically reserved time block of the unreserved channel time block is a time division multiple access, TDMA, period. receiving, during a first period of a handshake sequence, a request for a dynamically reserved time block of an unreserved channel time block for directional communication in a wireless personal area network, WPAN, wherein the handshake sequence has a start time corresponding to initiation of the first period; transmitting, during a second period of the handshake sequence, using omni-directional transmission, a grant of the dynamically reserved time block of the unreserved channel time block in response to the request; and scheduling at least part of the dynamically reserved time block of the unreserved channel time block for other directional communications, at least one of the other directional communications being non-interfering with the directional communication; wherein said receiving, said transmitting, and the dynamically reserved time block of the unreserved channel time block all occur between two consecutive beacons pertaining to said WPAN; wherein the dynamically reserved time block of the unreserved channel time block is a time division multiple access, TDMA, period.
A method for securing metal joint components to a composite rod comprising: inserting an internal collar (302, 402, 502, 602, 702, 802, 902) into an end of the composite rod (300, 400, 500, 600, 700, 800, 900); placing an external collar (304, 404, 504, 604, 704, 804, 904) over the end of the composite rod; placing a clamp device (306, 308; 406, 408; 506, 508; 606, 608; 706, 708; 806, 808; 906, 908) around the end of the composite rode over the external collar; characterized by: partially curing the end of the composite rod before deformation; deforming the internal collar, the external collar, and the end of the composite rod via applying unidirectional compressive load in the radial direction to the clamp device; and curing the end of the composite rod after deformation, wherein the composite rod comprises a thermoset composite. inserting an internal collar (302, 402, 502, 602, 702, 802, 902) into an end of the composite rod (300, 400, 500, 600, 700, 800, 900); placing an external collar (304, 404, 504, 604, 704, 804, 904) over the end of the composite rod; placing a clamp device (306, 308; 406, 408; 506, 508; 606, 608; 706, 708; 806, 808; 906, 908) around the end of the composite rode over the external collar; characterized by: partially curing the end of the composite rod before deformation; deforming the internal collar, the external collar, and the end of the composite rod via applying unidirectional compressive load in the radial direction to the clamp device; and curing the end of the composite rod after deformation, wherein the composite rod comprises a thermoset composite. deforming the internal collar, the external collar, and the end of the composite rod via applying unidirectional compressive load in the radial direction to the clamp device; and curing the end of the composite rod after deformation, wherein the composite rod comprises a thermoset composite.
A film comprising: a composition comprising from 85 wt% to 99 wt% of a thermoplastic polymer; from 15 wt% to 1 wt% of an odor suppressant comprising a blend of: (i) particles of zinc oxide, the particles having a D50 particle size from 100 nm to 3000 nm, a surface area from 1 m 2 /g to 9 m 2 /g, and a porosity less than 0.020 m 3 /g; particle size, surface area and porosity being measured as disclosed in the description (ii) a zinc ionomer, and the composition has a methyl mercaptan odor suppression value of less than 70 at 3 days as measured in accordance with ASTM D5504-12. from 85 wt% to 99 wt% of a thermoplastic polymer; from 15 wt% to 1 wt% of an odor suppressant comprising a blend of: (i) particles of zinc oxide, the particles having a D50 particle size from 100 nm to 3000 nm, a surface area from 1 m 2 /g to 9 m 2 /g, and a porosity less than 0.020 m 3 /g; particle size, surface area and porosity being measured as disclosed in the description (ii) a zinc ionomer, and the composition has a methyl mercaptan odor suppression value of less than 70 at 3 days as measured in accordance with ASTM D5504-12. (i) particles of zinc oxide, the particles having a D50 particle size from 100 nm to 3000 nm, a surface area from 1 m 2 /g to 9 m 2 /g, and a porosity less than 0.020 m 3 /g; particle size, surface area and porosity being measured as disclosed in the description (ii) a zinc ionomer, and the composition has a methyl mercaptan odor suppression value of less than 70 at 3 days as measured in accordance with ASTM D5504-12.
Downhole drilling apparatus for producing a borehole in the ground, said apparatus comprising - a main frame, - a drill head, which is arranged below the main frame and is rotatably mounted, - a drill drive for driving the drill head in rotation, - removal elements arranged on the drill head for removing ground material, and - at least one widening element with removal element, which, to generate a diameter widening, is adjustable from a radially withdrawn retracted position on the drill head into a widening position protruding radially relative to the drill head and is configured for the removal of ground material, - wherein an adjustment assembly is provided for radial adjustment, characterised - in that the adjustment assembly has at least one adjustment drive mounted on the main frame, by means of which adjustment drive at least one actuation ring mounted on the main frame is adjustable between a first position and a second position, and - in that an adjustment mechanism is arranged on the drill head and co-rotates with the drill head and is operatively connected to the actuation ring, which does not co-rotate with the drill head, such that, when the actuation ring is adjusted from the first position into the second position, the at least one widening element with removal element is radially adjustable from the retracted position into the widening position. - a main frame, - a drill head, which is arranged below the main frame and is rotatably mounted, - a drill drive for driving the drill head in rotation, - removal elements arranged on the drill head for removing ground material, and - at least one widening element with removal element, which, to generate a diameter widening, is adjustable from a radially withdrawn retracted position on the drill head into a widening position protruding radially relative to the drill head and is configured for the removal of ground material, - wherein an adjustment assembly is provided for radial adjustment, characterised - in that the adjustment assembly has at least one adjustment drive mounted on the main frame, by means of which adjustment drive at least one actuation ring mounted on the main frame is adjustable between a first position and a second position, and - in that an adjustment mechanism is arranged on the drill head and co-rotates with the drill head and is operatively connected to the actuation ring, which does not co-rotate with the drill head, such that, when the actuation ring is adjusted from the first position into the second position, the at least one widening element with removal element is radially adjustable from the retracted position into the widening position.
A system for use on a turbine engine powered aircraft to provide conditioned air to an environmental control system, comprising: a heat exchanger (240, 243, 250, 301) having an input and an output; a selection valve configured to selectively connect said heat exchanger input to at least one of a plurality of bleeds (102, 104, 106, 108) of a compressor (24, 122) of the turbine engine (20, 120); and at least one auxiliary compressor (160, 162, 234, 238) connected to said heat exchanger output, wherein an output of the at least one auxiliary compressor (160, 162, 234, 238) is connected to an input of the environmental control system; and a controller configured to receive contemporaneous operational data, calculate minimum configuration requirements to satisfy environmental demands, and transmit calculated configuration requirements to at least said selection valve to achieve a desired pressure and temperature for the air downstream of said at least one auxiliary compressor (160, 162, 234, 238); said selection valve selectively connects at least one of said plurality of bleeds to provide air to said heat exchanger at a pressure below a desired pressure of said ECS air input; at least one of said at least one auxiliary compressors (160, 162, 234, 238) includes an electric motor (164, 166) configured to drive rotation of the corresponding auxiliary compressor (160, 162, 234, 238); and said controller is configured to control the electric motor (164, 166) and the selection valve to achieve the desired pressure and temperature for the air downstream of said at least one auxiliary compressor (160, 162, 234, 238). a heat exchanger (240, 243, 250, 301) having an input and an output; a selection valve configured to selectively connect said heat exchanger input to at least one of a plurality of bleeds (102, 104, 106, 108) of a compressor (24, 122) of the turbine engine (20, 120); and at least one auxiliary compressor (160, 162, 234, 238) connected to said heat exchanger output, wherein an output of the at least one auxiliary compressor (160, 162, 234, 238) is connected to an input of the environmental control system; and a controller configured to receive contemporaneous operational data, calculate minimum configuration requirements to satisfy environmental demands, and transmit calculated configuration requirements to at least said selection valve to achieve a desired pressure and temperature for the air downstream of said at least one auxiliary compressor (160, 162, 234, 238); said selection valve selectively connects at least one of said plurality of bleeds to provide air to said heat exchanger at a pressure below a desired pressure of said ECS air input; at least one of said at least one auxiliary compressors (160, 162, 234, 238) includes an electric motor (164, 166) configured to drive rotation of the corresponding auxiliary compressor (160, 162, 234, 238); and said controller is configured to control the electric motor (164, 166) and the selection valve to achieve the desired pressure and temperature for the air downstream of said at least one auxiliary compressor (160, 162, 234, 238).
A lagging element (1, 101) suited to the creation of an insulating barrier in a sealed and insulating tank, the lagging element comprising a flat cover panel (2, 102), a thermal insulation lining (10, 20) arranged parallel to the cover panel and loadbearing elements which extend from the cover panel through the thickness of said thermal insulation lining to absorb compression forces, the loadbearing elements comprising a plurality of rigid pillars (4, 104) the cross section of which is small in comparison with the dimensions of the cover panel engaged in voids of the thermal insulation lining and fixed to the cover panel (2, 102), in which, at a normal temperature, for at least one of said pillars, a cross-sectional dimension of the pillar is smaller than a corresponding dimension of the void in which the pillar is engaged so as to provide a gap between the pillar (4, 104) and the wall of the void, characterized in that the lagging element further includes a filling element (30, 130) disposed in the gap between the pillar (4, 104) and the wall of the void, the filling element (30, 130) being made from a more flexible material than the thermal insulation lining.