mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for managing fluid in a system for treating a tissue site, the apparatus comprising: a first layer including a polymeric film having an outer surface, an inner surface, and a plurality of features (340, 404, 504, 607, 614) extending from the inner surface; a second layer including a polymeric film having an outer, tissue-facing surface and an inner surface, the second layer coupled to the first layer and covering the plurality of features (340, 404, 504, 607, 614) to form an enclosed space between the inner surface of the first layer and the inner surface of the second layer and a plurality of flow channels within the enclosed space, the second layer having an aperture open to the enclosed space and adapted to fluidly couple the enclosed space to the tissue site; a first wall coupled between the inner surface of the first layer and the inner surface of the second layer to form a first fluid pathway and a second fluid pathway within the enclosed space in fluid communication through the aperture; and a port fluidly coupled to the first fluid pathway and the second fluid pathway. a first layer including a polymeric film having an outer surface, an inner surface, and a plurality of features (340, 404, 504, 607, 614) extending from the inner surface; a second layer including a polymeric film having an outer, tissue-facing surface and an inner surface, the second layer coupled to the first layer and covering the plurality of features (340, 404, 504, 607, 614) to form an enclosed space between the inner surface of the first layer and the inner surface of the second layer and a plurality of flow channels within the enclosed space, the second layer having an aperture open to the enclosed space and adapted to fluidly couple the enclosed space to the tissue site; a first wall coupled between the inner surface of the first layer and the inner surface of the second layer to form a first fluid pathway and a second fluid pathway within the enclosed space in fluid communication through the aperture; and a port fluidly coupled to the first fluid pathway and the second fluid pathway.
Motor vehicle door latch with a locking mechanism (3, 4), and with a lever system (5, 8, 9) with at least two levers (5, 8) connected at an angle to one another and interacting, whereby both levers (5, 9) are coupled in a swiveling manner by a detachable plug-in connection (15, 16) in the area of a housing aperture, whereby one lever has a pin, which engages into a pouch on the other lever, characterized in that the pouch stands up vertically on one lever and extends into the housing aperture.
A separator for separating a first phase from a second phase of a fluid, more particularly serum from blood clots in the case of blood as the fluid, under centrifugal force in a tube-shaped container, comprising: a floating element made of an elastic material with, when viewed from above, a circumferential sealing edge for sealing contact on the inner side of the tube-like container in a sealing position; and fastened on the underside of the floating element, at least one ballast element; wherein the density of the ballast element is greater than the density of the floating element; wherein the density of the entire separator lies within a value range between the density of the first phase and the density of the second phase of the fluid; wherein the floating element is designed in a disk shape; and wherein the ballast element is designed in the form of a plurality of fingers which extend away from the underside of the disk-shaped floating element - distributed on its edge, characterised in that distributed on its edge and alternating with the fingers, the disk-shaped floating element comprises thickened portions as buoyancy elements; and the buoyancy elements are arranged on the side of the disk-shaped floating element opposite the fingers. a floating element made of an elastic material with, when viewed from above, a circumferential sealing edge for sealing contact on the inner side of the tube-like container in a sealing position; and fastened on the underside of the floating element, at least one ballast element; wherein the density of the ballast element is greater than the density of the floating element; wherein the density of the entire separator lies within a value range between the density of the first phase and the density of the second phase of the fluid; wherein the floating element is designed in a disk shape; and wherein the ballast element is designed in the form of a plurality of fingers which extend away from the underside of the disk-shaped floating element - distributed on its edge, characterised in that distributed on its edge and alternating with the fingers, the disk-shaped floating element comprises thickened portions as buoyancy elements; and the buoyancy elements are arranged on the side of the disk-shaped floating element opposite the fingers.
A method for determining an RA-RNTI, comprising: receiving, by a base station, a random access preamble transmitted by a terminal; determining, by the base station, a Random Access-Radio Network Temporary Identifier, RA-RNTI, according to time-frequency resources occupied by the random access preamble, wherein the time-frequency resources are time-frequency resources in Orthogonal Frequency Division Multiplexing, OFDM, symbol level; transmitting, by the base station, a random access response message, wherein the random access response message comprises downlink control information allocated by the base station for the terminal, and the downlink control information is scrambled by using the RA-RNTI; characterized in that, the RA-RNTI is calculated as: RA-RNTI = 1 + start_symbol_index_in_slot + slot_id * N_symbol_per_slot + 10 * N slot per subframe * N symbol per slot * f id wherein: start_symbol_index_in_slot is an index of first OFDM symbol occupied by the random access preamble in its slot; slot id is an index of a slot occupied by the random access preamble in its radio frame; N symbol per slot represents the number of OFDM symbols in a slot; N slot per subframe represents the number of slots in a subframe; f id is an index of a frequency domain bandwidth occupied by a PRACH. receiving, by a base station, a random access preamble transmitted by a terminal; determining, by the base station, a Random Access-Radio Network Temporary Identifier, RA-RNTI, according to time-frequency resources occupied by the random access preamble, wherein the time-frequency resources are time-frequency resources in Orthogonal Frequency Division Multiplexing, OFDM, symbol level; transmitting, by the base station, a random access response message, wherein the random access response message comprises downlink control information allocated by the base station for the terminal, and the downlink control information is scrambled by using the RA-RNTI; characterized in that, the RA-RNTI is calculated as: RA-RNTI = 1 + start_symbol_index_in_slot + slot_id * N_symbol_per_slot + 10 * N slot per subframe * N symbol per slot * f id wherein: start_symbol_index_in_slot is an index of first OFDM symbol occupied by the random access preamble in its slot; slot id is an index of a slot occupied by the random access preamble in its radio frame; N symbol per slot represents the number of OFDM symbols in a slot; N slot per subframe represents the number of slots in a subframe; f id is an index of a frequency domain bandwidth occupied by a PRACH. start_symbol_index_in_slot is an index of first OFDM symbol occupied by the random access preamble in its slot; slot id is an index of a slot occupied by the random access preamble in its radio frame; N symbol per slot represents the number of OFDM symbols in a slot; N slot per subframe represents the number of slots in a subframe; f id is an index of a frequency domain bandwidth occupied by a PRACH.
A zoom lens system comprising, in order from an object side along an optical axis of the zoom lends system: a first lens group having negative refractive power; a second lens group having positive refractive power; and a third lens group having positive refractive power; upon zooming from a wide-angle end state to a telephoto end state, each distance between adjacent lens groups varying, characterised in that,the following conditional expressions are satisfied: 0.47 < Nnav − 0.80 × ft × tanωw / TLw < 0.90; and 0.21 < ft × X 2 / TL w 2 < 0.29 where Nnav denotes an average of refractive indices at d-line (wave length λ=587.6nm) of all negative lenses included in the zoom lens system, ft denotes a focal length of the zoom lens system in the telephoto end state, ωw denotes a half angle of view of the zoom lens system in the wide-angle end state, and TLw denotes a total lens length of the zoom lens system in the wide-angle end state, and X2 denotes the maximum moving amount of the second lens group upon zooming from the wide-angle end state to the telephoto end state. a first lens group having negative refractive power; a second lens group having positive refractive power; and a third lens group having positive refractive power; upon zooming from a wide-angle end state to a telephoto end state, each distance between adjacent lens groups varying,
A communication apparatus comprising: a communication unit including a plurality of communication modules (3, 4, 5, 6, 7), each communication module comprising communication circuitry, each communication module configured to support a different wireless communication method, wherein each wireless communication method corresponds to a different wireless network technology; and a communication controller configured to sequentially activate each of the plurality of communication modules in a predetermined order by sequentially supplying power to the communication modules in the predetermined order, wherein the communication controller is further configured to: collect information regarding use of one of the wireless communication methods by an Internet-of-things, IoT, device connected to the communication apparatus via the wireless communication method, and analyse a use pattern of the wireless communication method used by the IoT device, based on the collected information, and to set the predetermined order based on the analysed use pattern. a communication unit including a plurality of communication modules (3, 4, 5, 6, 7), each communication module comprising communication circuitry, each communication module configured to support a different wireless communication method, wherein each wireless communication method corresponds to a different wireless network technology; and a communication controller configured to sequentially activate each of the plurality of communication modules in a predetermined order by sequentially supplying power to the communication modules in the predetermined order, wherein the communication controller is further configured to: collect information regarding use of one of the wireless communication methods by an Internet-of-things, IoT, device connected to the communication apparatus via the wireless communication method, and analyse a use pattern of the wireless communication method used by the IoT device, based on the collected information, and to set the predetermined order based on the analysed use pattern. collect information regarding use of one of the wireless communication methods by an Internet-of-things, IoT, device connected to the communication apparatus via the wireless communication method, and analyse a use pattern of the wireless communication method used by the IoT device, based on the collected information, and to set the predetermined order based on the analysed use pattern.
A process of packaging a frozen food product comprising: providing a first structural layer and a mold having a mold cavity; receiving the first structural layer at least in part in the mold cavity by suction or vacuum such that the first structural layer takes the shape of the mold cavity to define a first structural layer cavity; inserting a flexible second layer in the first structural layer cavity so that a portion of the second layer conforms to the first structural layer cavity to define a recess; filling the recess of the flexible second layer with a food product; freezing the food product; and removing the first structural layer from the second layer after the freezing step. providing a first structural layer and a mold having a mold cavity; receiving the first structural layer at least in part in the mold cavity by suction or vacuum such that the first structural layer takes the shape of the mold cavity to define a first structural layer cavity; inserting a flexible second layer in the first structural layer cavity so that a portion of the second layer conforms to the first structural layer cavity to define a recess; filling the recess of the flexible second layer with a food product; freezing the food product; and removing the first structural layer from the second layer after the freezing step.
A method for producing carbon monoxide, wherein the carbon monoxide is formed from a gaseous feed which comprises at least carbon dioxide, characterized in that the method comprises the steps - supplying oxygen to a carbon dioxide stream for forming a carbon dioxide based mixture, - providing a hydrogen based stream comprised mainly of hydrogen, - supplying a hydrocarbon containing stream to the hydrogen based stream, - supplying the carbon dioxide based mixture to the hydrogen based stream to form the gaseous feed, and supplying the hydrocarbon containing stream to the hydrogen based stream before the supply of the carbon dioxide based mixture, - feeding the gaseous feed into a reactor which comprises at least one catalyst, and feeding the gaseous feed with velocity of the gas stream which is ≥ 0.5 m/s to the reactor, - treating the gaseous feed by means of a partial oxidation in the reactor so that carbon dioxide reacts with hydrogen in the reactor in presence of oxygen to form heat and carbon monoxide during the reaction, - recovering a product composition comprising at least carbon monoxide and hydrogen from the reactor, and supplying the product composition to a Fischer-Tropsch step, - recycling an off-gas stream comprising at least hydrocarbons from the Fischer-Tropsch step to be used as the hydrocarbon containing stream, and - the pressure in the partial oxidation reactor is same as the pressure in a Fischer-Tropsch reactor of the Fischer-Tropsch step. - supplying oxygen to a carbon dioxide stream for forming a carbon dioxide based mixture, - providing a hydrogen based stream comprised mainly of hydrogen, - supplying a hydrocarbon containing stream to the hydrogen based stream, - supplying the carbon dioxide based mixture to the hydrogen based stream to form the gaseous feed, and supplying the hydrocarbon containing stream to the hydrogen based stream before the supply of the carbon dioxide based mixture, - feeding the gaseous feed into a reactor which comprises at least one catalyst, and feeding the gaseous feed with velocity of the gas stream which is ≥ 0.5 m/s to the reactor, - treating the gaseous feed by means of a partial oxidation in the reactor so that carbon dioxide reacts with hydrogen in the reactor in presence of oxygen to form heat and carbon monoxide during the reaction, - recovering a product composition comprising at least carbon monoxide and hydrogen from the reactor, and supplying the product composition to a Fischer-Tropsch step, - recycling an off-gas stream comprising at least hydrocarbons from the Fischer-Tropsch step to be used as the hydrocarbon containing stream, and - the pressure in the partial oxidation reactor is same as the pressure in a Fischer-Tropsch reactor of the Fischer-Tropsch step.
A mobile communication system, comprising: a mobile terminal device which includes a standardized application program interface as interface with subordinate modules and a function management means for managing function programs of the mobile device; a server including a web page and downloadable function programs for adding new functions to the mobile device; and a computer that can access a web page through a network and requests at least one function program to be downloaded to the mobile device by transmitting the server information for identifying the function program and ID information of the mobile device, and wherein the server downloads the function program designated by the information for identifying the program transmitted from the computer to the mobile terminal device designated by the ID information of the mobile device transmitted from the computer; characterized in that the function management means has capability of coping with a freeze of the function program downloaded from the server in a setup mode of the function. a mobile terminal device which includes a standardized application program interface as interface with subordinate modules and a function management means for managing function programs of the mobile device; a server including a web page and downloadable function programs for adding new functions to the mobile device; and a computer that can access a web page through a network and requests at least one function program to be downloaded to the mobile device by transmitting the server information for identifying the function program and ID information of the mobile device, and wherein the server downloads the function program designated by the information for identifying the program transmitted from the computer to the mobile terminal device designated by the ID information of the mobile device transmitted from the computer; characterized in that the function management means has capability of coping with a freeze of the function program downloaded from the server in a setup mode of the function.
A method for producing a link unit, comprising the steps a) provision of a carrier which has a first connecting section, b) cold forming of the carrier in the region of the first connecting section in such a way that an upset section is formed, the wall thickness (w) of the carrier being increased in the region of the upset section, c) provision of a node element with a joint section, and connecting of the joint section to the first connecting section by means of a rotary friction welding method. a) provision of a carrier which has a first connecting section, b) cold forming of the carrier in the region of the first connecting section in such a way that an upset section is formed, the wall thickness (w) of the carrier being increased in the region of the upset section, c) provision of a node element with a joint section, and connecting of the joint section to the first connecting section by means of a rotary friction welding method.
A wheelhouse of a motor vehicle, which is arranged on both sides of an engine compartment with a lower cover of the engine compartment, wherein the wheelhouse consists of a wheel shell and a side wall and in the side wall a section is formed, which connects the engine compartment with the wheelhouse, characterized in that on the section with the width a projecting front ear as well as a rear ear with the length are arranged, which have an advantageous quadrangular form with an upper edge and a lower edge, wherein the ratio of the length to the width is L ≥ 0.2B.
A method for establishing a communication link between a user terminal (400, 401, 700) and a first satellite associated with a first satellite service, the method comprising: determining a position of the user terminal (400, 401, 700) on Earth based, at least in part, on location information provided by a satellite positioning system, SPS, receiver associated with the user terminal (400, 401, 700) using positioning satellites (802A - 802D) of a satellite-based location and positioning service; determining a reference azimuth of the user terminal (400, 401, 700) based, at least in part, on a position of a second satellite associated with a second satellite service that is different than the first satellite service and the satellite-based location and positioning service; obtaining ephemeris data for the first satellite; and aligning a directional antenna (410, 710) of the user terminal (400, 401, 700) with the first satellite based, at least in part, on the position of the user terminal (400, 401, 700), the reference azimuth of the user terminal (400, 401, 700), and the obtained ephemeris data. determining a position of the user terminal (400, 401, 700) on Earth based, at least in part, on location information provided by a satellite positioning system, SPS, receiver associated with the user terminal (400, 401, 700) using positioning satellites (802A - 802D) of a satellite-based location and positioning service; determining a reference azimuth of the user terminal (400, 401, 700) based, at least in part, on a position of a second satellite associated with a second satellite service that is different than the first satellite service and the satellite-based location and positioning service; obtaining ephemeris data for the first satellite; and aligning a directional antenna (410, 710) of the user terminal (400, 401, 700) with the first satellite based, at least in part, on the position of the user terminal (400, 401, 700), the reference azimuth of the user terminal (400, 401, 700), and the obtained ephemeris data.
Rotating nozzle for a high-pressure cleaning device comprising a nozzle house provided with a fluid exit opening comprising a seat co-operating with a first end portion of a nozzle member comprising a nozzle chamber, such that the nozzle member can undergo pivotal and rotational movement relative to a longitudinal axis through the nozzle house, the nozzle house being provided with an inlet chamber, from which fluid flows through a diffuser into a nozzle house chamber, in which said nozzle member is provided, where a second end portion of said nozzle member longitudinally opposite said first end portion of the nozzle member is provided with at least one opening in the circumferential surface of the nozzle member, and said nozzle member at the longitudinal end opposite said first end portion is provided with a stabilising member that stabilises the rotational movement of the nozzle member due to the inertia/moment of inertia of the stabilising member, characterised in that an inner wall of the second end portion of the nozzle member is provided with one or more fluid passages formed between thicker wall portions of the inner wall of the second end portion and an outer circumferential surface of an insert portion of the stabilising member, said fluid passages connecting the openings with the internal nozzle chamber of the nozzle member.
An enamel steel having a high-temperature baking hardenability, the chemical elements thereof, in mass percentage, being: C: 0.008-0.020%, Mn: 0.05-0.50%, S: 0.021-0.035%, Alt: 0.005-0.050% or Al S: 0.003-0.045%, P: ≤0.035%, Si: ≤0.10%, 0<N<0.003%, 0<O≤ 0.010%, element Ti in a mass percentage meeting N × Ti ≤ 3 × 10 -4, S × Ti ≥ 2 ×10 -3 and Ti ≥ 3.43N + 1.5S + 0.02, and at least one of 0<Cu ≤ 0.10%, 0<Cr≤ 0.10%, 0<Ni ≤ 0.10%, 0<Mo ≤ 0.10%, 0<Nb ≤ 0.010%, 0<V ≤ 0.020%, and 0<B ≤ 0.0005%, with 0.05% ≤ 5 × Nb + Cu + V + Ni + Cr + Mo + 10 × B ≤ 0.20%; and the balance being Fe and inevitable impurity elements. C: 0.008-0.020%, Mn: 0.05-0.50%, S: 0.021-0.035%, Alt: 0.005-0.050% or Al S: 0.003-0.045%, P: ≤0.035%, Si: ≤0.10%, 0<N<0.003%, 0<O≤ 0.010%, element Ti in a mass percentage meeting N × Ti ≤ 3 × 10 -4, S × Ti ≥ 2 ×10 -3 and Ti ≥ 3.43N + 1.5S + 0.02, and at least one of 0<Cu ≤ 0.10%, 0<Cr≤ 0.10%, 0<Ni ≤ 0.10%, 0<Mo ≤ 0.10%, 0<Nb ≤ 0.010%, 0<V ≤ 0.020%, and 0<B ≤ 0.0005%, with 0.05% ≤ 5 × Nb + Cu + V + Ni + Cr + Mo + 10 × B ≤ 0.20%; and the balance being Fe and inevitable impurity elements.