mhurhangee/ep-ind-claims huggingface dataset:
System consisting of a tool holder and a tool, wherein the tool holder has a tool receptacle, designed as a chuck, and a shank of the tool, in particular rotational tool, that is received in said tool receptacle, wherein the tool holder has a pull-out prevention means which blocks an axial migration of the tool and comprises at least one blocking element (4, 19) and at least one mutually corresponding blocking groove (13, 14) which receives the blocking element (4, 19), said blocking groove (13, 14) and said blocking element (4, 19) interacting with one another in a form-fitting manner; wherein the chuck is a collet chuck, a hydro-expansion chuck or a shrink chuck, characterized in that the tool, in particular rotational tool, has at least two, preferably four, blocking grooves (13, 14, 34); wherein the blocking grooves (13, 14, 34) are disposed in the circumferential face of the shank of the tool and, proceeding from the end side, extend over at least a sub-portion of the shank.
A method for adjusting a contention window size, CWS, in a wireless access system supporting an unlicensed band, the method comprising: performing a channel access procedure based on random back-off; after a serving cell configured in the unlicensed band is determined to be an idle state based on the channel access procedure, transmitting, in at least one transmission time interval, TTI, a transmission burst comprising a downlink signal in the serving cell; identifying hybrid automatic repeat and request acknowledgment, HARQ-ACK, information related to the transmission burst; and adjusting the CWS based on HARQ-ACK information related to a starting TTI included in the at least one TTI, wherein each of the at least one TTI is configured as 14 orthogonal frequency division multiplexing, OFDM, symbols. performing a channel access procedure based on random back-off; after a serving cell configured in the unlicensed band is determined to be an idle state based on the channel access procedure, transmitting, in at least one transmission time interval, TTI, a transmission burst comprising a downlink signal in the serving cell; identifying hybrid automatic repeat and request acknowledgment, HARQ-ACK, information related to the transmission burst; and adjusting the CWS based on HARQ-ACK information related to a starting TTI included in the at least one TTI, wherein each of the at least one TTI is configured as 14 orthogonal frequency division multiplexing, OFDM, symbols.
A composition of matter comprising viable electrically excitable cells seeded on a scaffold, wherein an outer surface of said scaffold comprises a coating of metal nanoparticles and wherein more than 50 % of said metal nanoparticles are positioned on said outer surface of said scaffold, wherein said coating is between 2-20 nm in thickness.
A sorbent recharger, comprising: a first receiving compartment for a first sorbent module; the receiving compartment having a first sorbent module inlet and a first sorbent module outlet; a first inlet line fluidly connected to the first sorbent module inlet; a first effluent line fluidly connected to the first sorbent module outlet; at least one of an disinfectant source, a brine source, a base source, and a water source fluidly connected to the first inlet line; at least a first pump positioned in the first inlet line for pumping fluid from the disinfectant source, brine source, and water source to the first sorbent module inlet; at least one flow sensor, at least one pressure sensor, at least one temperature sensor, and at least one conductivity sensor; and a control system in communication with at least one of the flow sensor, pressure sensor, temperature sensor or conductivity sensor; the control system for controlling the first pump, preferably said sorbent recharger further comprising a user interface in communication with the control system, wherein the control system determines whether at least one of the pressure, flow rate, temperature, and conductivity are within predetermined ranges, wherein the control system generates an alert indicating a leak when the pressure is below the predetermined range; and wherein the control system generates an alert indicating an occlusion when the pressure is above the predetermined range. a first receiving compartment for a first sorbent module; the receiving compartment having a first sorbent module inlet and a first sorbent module outlet; a first inlet line fluidly connected to the first sorbent module inlet; a first effluent line fluidly connected to the first sorbent module outlet; at least one of an disinfectant source, a brine source, a base source, and a water source fluidly connected to the first inlet line; at least a first pump positioned in the first inlet line for pumping fluid from the disinfectant source, brine source, and water source to the first sorbent module inlet; at least one flow sensor, at least one pressure sensor, at least one temperature sensor, and at least one conductivity sensor; and a control system in communication with at least one of the flow sensor, pressure sensor, temperature sensor or conductivity sensor; the control system for controlling the first pump, preferably said sorbent recharger further comprising a user interface in communication with the control system, wherein the control system determines whether at least one of the pressure, flow rate, temperature, and conductivity are within predetermined ranges, wherein the control system generates an alert indicating a leak when the pressure is below the predetermined range; and wherein the control system generates an alert indicating an occlusion when the pressure is above the predetermined range.
Illuminatable panel (16, 20, 25, 30, 34, 112, 113, 114), which can be illuminated by at least one lighting means (55, 85, 116, 117) and the lighting means (55, 85, 116, 117) is arranged at at least one edge region of the illuminatable panel (16, 20, 25, 30, 34, 112, 113, 114), wherein the illuminatable panel (16, 20, 25, 30, 34, 112, 113, 114) has a construction which comprises a plurality of layers (61, 62, 63, 64, 65), in which each layer (61, 62, 63, 64, 65) has two mutually opposite side surfaces (61A, 61B, 62A, 62B, 63A, 63B, 64A, 64B, 65A, 65B) and is bounded in its area dimension by an edge region (61C, 62C, 63C, 64C, 65C), wherein the layer sequence of the construction comprises a reflective covering as a first layer, a transparent, edge-lightable polymer material plate containing light-dispersing particles as a second layer, a first glass pane as a third layer, a transparent polymer layer as a fourth layer and a second glass pane as a fifth layer, characterised in that the layers (61, 62, 63, 64, 65) of the construction contact one another by the side surfaces (61A, 62A, 62B, 63A, 63B, 64A, 64B, 65B) thereof.
Arrangement for treating diesel engine exhaust gases containing nitrogen oxides (NOx) and hydrocarbons, wherein an SCR system comprising an SCR catalytic converter and an injection device for reducing agents is arranged upstream of an oxidation catalytic converter, wherein the SCR catalytic converter contains a copper (Cu)- and iron (Fe)-exchanged zeolite, and the zeolite is constructed in such a way that the hydrocarbons contained in the exhaust gas are kept away from the active centers in the catalytic converter, where the conversions take place, by the molecular sieve-like effect of the zeolite, wherein the zeolite has a maximum lower channel width of 0.26 nm to 0.42 nm (2.6 A to 4.2 A).
A system for producing hydrogen by dehydrogenation of an organic hydride, comprising: a first dehydrogenation reaction unit that produces hydrogen by a dehydrogenation reaction of an organic hydride in presence of a first catalyst; and a second dehydrogenation reaction unit that receives a product of the first dehydrogenation reaction unit, and produces hydrogen by a dehydrogenation reaction of the organic hydride remaining in the product in presence of a second catalyst; wherein an amount of the first catalyst used in the first dehydrogenation reaction unit is equal to or less than an amount of the second catalyst used in the second dehydrogenation reaction unit, and an amount of hydrogen produced in the first dehydrogenation reaction unit is less than an amount of hydrogen produced in the second dehydrogenation reaction unit, characterized in that the first dehydrogenation reaction unit consists of an adiabatic reaction vessel, and the second dehydrogenation reaction unit consists of a heat exchanger type reaction vessel. a first dehydrogenation reaction unit that produces hydrogen by a dehydrogenation reaction of an organic hydride in presence of a first catalyst; and a second dehydrogenation reaction unit that receives a product of the first dehydrogenation reaction unit, and produces hydrogen by a dehydrogenation reaction of the organic hydride remaining in the product in presence of a second catalyst; wherein an amount of the first catalyst used in the first dehydrogenation reaction unit is equal to or less than an amount of the second catalyst used in the second dehydrogenation reaction unit, and an amount of hydrogen produced in the first dehydrogenation reaction unit is less than an amount of hydrogen produced in the second dehydrogenation reaction unit, characterized in that the first dehydrogenation reaction unit consists of an adiabatic reaction vessel, and the second dehydrogenation reaction unit consists of a heat exchanger type reaction vessel.
Electrical connector assembly comprising: a connector housing adapted to receive at least one electrical terminal (80, 90); a terminal position assurance, TPA, member adapted to be mounted to the connector housing; an actuating member adapted to be mounted to the connector housing and being movable relative to the connector housing between a first position and a second position in mounted condition; characterized by the TPA member being movable relative to the connector housing between a pre-lock position and a final-lock position in mounted condition; wherein the TPA member comprises at least one projection (24, 25) and wherein the actuating member comprises at least one recess (31, 32), and wherein the recess (31, 32) is engaging the projection (24, 25) when the actuating member is moving between the first position and the second position wherein when moving from the first position to the second position the recess (31, 32) engages the projection (24, 25) to urge the TPA member to move from the pre-lock position to the final-lock position, and wherein when moving from the second position to the first position the recess (31, 32) engages the projection (24, 25) to urge the TPA member from the final-lock position to the pre-lock position. a connector housing adapted to receive at least one electrical terminal (80, 90); a terminal position assurance, TPA, member adapted to be mounted to the connector housing; an actuating member adapted to be mounted to the connector housing and being movable relative to the connector housing between a first position and a second position in mounted condition; characterized by the TPA member being movable relative to the connector housing between a pre-lock position and a final-lock position in mounted condition; wherein the TPA member comprises at least one projection (24, 25) and wherein the actuating member comprises at least one recess (31, 32), and wherein the recess (31, 32) is engaging the projection (24, 25) when the actuating member is moving between the first position and the second position wherein when moving from the first position to the second position the recess (31, 32) engages the projection (24, 25) to urge the TPA member to move from the pre-lock position to the final-lock position, and wherein when moving from the second position to the first position the recess (31, 32) engages the projection (24, 25) to urge the TPA member from the final-lock position to the pre-lock position.
A mould for aluminothermic welding of metal beams/rails including at least two essentially identical components (19, 22) in rigid refractory material and able to be temporarily fitted opposite each other around two beam/rail ends to be welded, each of the components comprising: ∘ a first lower part including a face defining a mould cavity including, toward the top, an upper opening and arranged to receive, by casting, welding metal in liquid state, the face being able to surround the ends at least at the level of the foot and a core of the beams/rails, and a recovery channel for gas and welding metal in liquid state leading downward in a lower zone of the mould cavity and having, toward the top, an opening, and ∘ a second upper part, adjacent and topping the first lower component, including a chamber downwardly communicating with the upper opening of the mould cavity open toward the top, arranged to received, by casting, welding metal in liquid state and able to contain the ends at the level of a head of the beams/rails, characterized in that the chamber is a slow cooling chamber forming a non-compartmentalized volume in which the opening of the channel leads, and bounded by an external wall of each of the components of the mould and by a lower opening able to be situated under the head. ∘ a first lower part including a face defining a mould cavity including, toward the top, an upper opening and arranged to receive, by casting, welding metal in liquid state, the face being able to surround the ends at least at the level of the foot and a core of the beams/rails, and a recovery channel for gas and welding metal in liquid state leading downward in a lower zone of the mould cavity and having, toward the top, an opening, and ∘ a second upper part, adjacent and topping the first lower component, including a chamber downwardly communicating with the upper opening of the mould cavity open toward the top, arranged to received, by casting, welding metal in liquid state and able to contain the ends at the level of a head of the beams/rails,
A surface elastic wave sensor device configured to be remotely queryable comprising an inter-digital comb transducer outside the Bragg condition and two Bragg mirrors arranged on either side of the transducer, the whole forming a single-port resonator, the transducer having a synchronism frequency f1 and a bandgap between frequencies f2 and f3 and the Bragg mirrors having a bandgap between frequencies f4 and f5, the frequency f1 being within the bandgap f4-f5 of the Bragg mirrors, the bandgap f2-f3 of the transducer being outside the bandgap f4-f5 of the Bragg mirrors, so that the sensor provides a single mode spectral response, wherein the Bragg mirrors are arranged at distances d1 and d2 from the transducer between 0 and 10 times the wavelength V1/f1, V1 being the surface wave velocity, so that the propagation of the elastic wave is single mode between each Bragg mirror and the transducer.
A honeycomb structure comprising a joined honeycomb segment body in which a plurality of honeycomb segments are integrally joined by mutual joining surfaces via a joining material layer, and having a configuration in which a plurality of cells to become through channels of a fluid are arranged in parallel with one another along a central axis direction, wherein the joining material layer contains, as aggregates, inorganic particles, and acicular crystal particles having a shot content ratio smaller than 10 mass%, and wherein the acicular crystal particles include 80 mass% or more of acicular crystal particles having an average length of 20 to 500 μm in a long axis direction of the acicular crystal particles, wherein the acicular crystal particles for use as the aggregate in the joining material layer are natural acicular minerals.
A flame detector system, comprising: a flame detector, comprising: a housing, a flame sensor disposed in the housing and arranged to detect a flame within a field of view of the flame sensor, an imaging device disposed within the housing, the imaging device having an optical view that correlates to the field of view, and a controller in communication with the imaging device; and a plurality of targets external to the flame detector and disposed within the optical view, the controller being programmed to operate the imaging device to capture a first image of an external environment containing the plurality of targets and store the first image and store a location of the plurality of targets within the first image, wherein the controller is further programmed to operate the imaging device to capture a second image of the external environment containing the plurality of targets; and wherein the controller is further programmed to compare the plurality of targets present within the second image to the stored plurality of targets present within the first image. a flame detector, comprising: a housing, a flame sensor disposed in the housing and arranged to detect a flame within a field of view of the flame sensor, an imaging device disposed within the housing, the imaging device having an optical view that correlates to the field of view, and a controller in communication with the imaging device; and a housing, a flame sensor disposed in the housing and arranged to detect a flame within a field of view of the flame sensor, an imaging device disposed within the housing, the imaging device having an optical view that correlates to the field of view, and a controller in communication with the imaging device; and a plurality of targets external to the flame detector and disposed within the optical view, the controller being programmed to operate the imaging device to capture a first image of an external environment containing the plurality of targets and store the first image and store a location of the plurality of targets within the first image, wherein the controller is further programmed to operate the imaging device to capture a second image of the external environment containing the plurality of targets; and wherein the controller is further programmed to compare the plurality of targets present within the second image to the stored plurality of targets present within the first image.
A negative active material for a rechargeable lithium battery, comprising: a core comprising crystalline carbon; at least one metal nano particle and at least one MO x nano particle disposed on a surface of the core, wherein x is from 0.5 to 1.5, and M is Si, Sn, In, Al, or a combination thereof; and a coating layer surrounding at least a portion of the core, the at least one metal nano particle and the at least one MO x nano particle, the coating layer comprising amorphous carbon, characterized in that: the metal nano particles have a FWHM of an X-ray diffraction angle (2 θ) at a plane of 0.3 degrees (°) to 0.9 degrees (°) as measured using a CuKα ray; and/or the metal nano particle have a FWHM of a X-ray diffraction angle (2θ) at a plane of 0.35 degrees (°) to 0.95 degrees (°) as measured using a CuKα ray. a core comprising crystalline carbon; at least one metal nano particle and at least one MO x nano particle disposed on a surface of the core, wherein x is from 0.5 to 1.5, and M is Si, Sn, In, Al, or a combination thereof; and a coating layer surrounding at least a portion of the core, the at least one metal nano particle and the at least one MO x nano particle, the coating layer comprising amorphous carbon, characterized in that: the metal nano particles have a FWHM of an X-ray diffraction angle (2 θ) at a plane of 0.3 degrees (°) to 0.9 degrees (°) as measured using a CuKα ray; and/or the metal nano particle have a FWHM of a X-ray diffraction angle (2θ) at a plane of 0.35 degrees (°) to 0.95 degrees (°) as measured using a CuKα ray. the metal nano particles have a FWHM of an X-ray diffraction angle (2 θ) at a plane of 0.3 degrees (°) to 0.9 degrees (°) as measured using a CuKα ray; and/or the metal nano particle have a FWHM of a X-ray diffraction angle (2θ) at a plane of 0.35 degrees (°) to 0.95 degrees (°) as measured using a CuKα ray.
A sound absorber comprising an absorption material for absorbing room noise, wherein said absorption material is formed of a glass filament fabric produced from glass filament yarns, characterized in that selvedge waste resulting from production and/or processing of the glass filament fabric forms said absorption material.
A flying body comprising: an antenna for forming a communication area by a beam irradiated toward the ground to provide wireless communication service for a user terminal in the communication area; and an attachment/detachment part configured to physically attach to and detach from another flying body for combining with and separating from the another flying body, wherein the attachment/detachment part includes: a right wing-side attachment/detachment part arranged on a right wing-side of a main wing of the flying body, and a left wing-side attachment/detachment part arranged on a left wing-side of the main wing, and wherein the attachment/detachment part further includes at least any of: an upper surface-side attachment/detachment part arranged on an upper surface-side of the flying body, and a lower surface-side attachment/detachment part arranged on a lower surface-side of the flying body. an antenna for forming a communication area by a beam irradiated toward the ground to provide wireless communication service for a user terminal in the communication area; and an attachment/detachment part configured to physically attach to and detach from another flying body for combining with and separating from the another flying body, wherein the attachment/detachment part includes: a right wing-side attachment/detachment part arranged on a right wing-side of a main wing of the flying body, and a left wing-side attachment/detachment part arranged on a left wing-side of the main wing, and wherein the attachment/detachment part further includes at least any of: an upper surface-side attachment/detachment part arranged on an upper surface-side of the flying body, and a lower surface-side attachment/detachment part arranged on a lower surface-side of the flying body. a right wing-side attachment/detachment part arranged on a right wing-side of a main wing of the flying body, and a left wing-side attachment/detachment part arranged on a left wing-side of the main wing, and wherein the attachment/detachment part further includes at least any of: an upper surface-side attachment/detachment part arranged on an upper surface-side of the flying body, and a lower surface-side attachment/detachment part arranged on a lower surface-side of the flying body. an upper surface-side attachment/detachment part arranged on an upper surface-side of the flying body, and a lower surface-side attachment/detachment part arranged on a lower surface-side of the flying body.