mhurhangee/ep-ind-claims huggingface dataset:
A nacelle of a wind turbine, the nacelle comprising a rear frame structure, the rear frame structure comprising: - a plurality of truss members, and - a plurality of joints, wherein each joint interconnects ends of at least two truss members, and wherein each joint comprises a central portion and at least two connecting portions extending away from the central portion, each connecting portion being arranged to form an interface towards a truss member, characterized in that each connecting portion is significantly more flexible than the central portion and significantly more flexible than the truss members. - a plurality of truss members, and - a plurality of joints,
Production method in which a workpiece is built up layer by layer in a gradual manner and, for build-up of the workpiece, a respective preformed layer (2, 3, 4), which is formed on a layer carrier by means of an electrophotographic printing process, is transferred from the layer carrier to the workpiece, wherein the layer carrier is completely rolled onto a roller after printing by means of the electrophotographic printing process, characterized in that the layer (2, 3, 4) is formed from different materials, and at least one of the layers (2, 3, 4) is formed from multiple sub-layers (7, 8, 9, 10, 11) which are arranged one above the other.
A method for the preparation of a composition for moisture regulation in gel form consisting of magnesium chloride, a cellulose selected from hydroxypropyl methyl cellulose and methyl hydroxyethyl cellulose and water, wherein the ratio between the quantity of magnesium chloride and cellulose being between 0.1 and 16 by weight, the method being characterised by comprising the following steps: a) dissolving the magnesium chloride in water to obtain a solution; b) heating said solution to a temperature higher than 50°C; c) adding a cellulose selected from hydroxypropyl methyl cellulose and methyl hydroxyethyl cellulose to said solution; d) quenching to temperatures lower than 10°C; e) conditioning in a climatic chamber. a) dissolving the magnesium chloride in water to obtain a solution; b) heating said solution to a temperature higher than 50°C; c) adding a cellulose selected from hydroxypropyl methyl cellulose and methyl hydroxyethyl cellulose to said solution; d) quenching to temperatures lower than 10°C; e) conditioning in a climatic chamber.
A microfluidic flow sensor comprising: an electrically and thermally insulating substrate; on the substrate: circuit components including at least one sensor element and at least two resistive elements electrically connected thereto, the at least one sensor element being disposed within a channel region of the substrate; and at least two contact pads each electrically connected to one of the resistive elements,; disposed on the circuit components, a dielectric layer; and disposed on the substrate and circuit components, a plurality of layers (115, 120, 125) defining (i) a microfluidic channel formed by an opening in a layer over the channel region of the substrate, (ii) at least two apertures (140 1, 140 2) overlying the channel region, and (iii) a cover comprising a pair of receiving pockets (145 1, 145 2) each configured for receiving a fluid conduit therein, the receiving pockets (145 1, 145 2) being oriented such that directions of fluid flows therein are parallel to a top surface of the cover, the receiving pockets (145 1, 145 2) each overlying a respective at least one of said apertures (140 1, 140 2) for fluidically communicating with the channel region but not directly with each other. an electrically and thermally insulating substrate; on the substrate: circuit components including at least one sensor element and at least two resistive elements electrically connected thereto, the at least one sensor element being disposed within a channel region of the substrate; and at least two contact pads each electrically connected to one of the resistive elements,; disposed on the circuit components, a dielectric layer; and disposed on the substrate and circuit components, a plurality of layers (115, 120, 125) defining (i) a microfluidic channel formed by an opening in a layer over the channel region of the substrate, (ii) at least two apertures (140 1, 140 2) overlying the channel region, and (iii) a cover comprising a pair of receiving pockets (145 1, 145 2) each configured for receiving a fluid conduit therein, the receiving pockets (145 1, 145 2) being oriented such that directions of fluid flows therein are parallel to a top surface of the cover, the receiving pockets (145 1, 145 2) each overlying a respective at least one of said apertures (140 1, 140 2) for fluidically communicating with the channel region but not directly with each other.
A sapphire substrate having: a diameter not less than 6.5 cm; and a generally planar surface having at least one of the following properties: a normalized bow of not greater than 0.100 μm/cm 2, wherein the normalized bow is a bow measurement normalized to account for the surface area of the generally planar surface; a normalized warp of not greater than 0.190 μm/ cm 2, wherein the warp is normalized to account for the surface area of the sapphire substrate; or any combination thereof. a diameter not less than 6.5 cm; and a generally planar surface having at least one of the following properties: a normalized bow of not greater than 0.100 μm/cm 2, wherein the normalized bow is a bow measurement normalized to account for the surface area of the generally planar surface; a normalized warp of not greater than 0.190 μm/ cm 2, wherein the warp is normalized to account for the surface area of the sapphire substrate; or any combination thereof. a normalized bow of not greater than 0.100 μm/cm 2, wherein the normalized bow is a bow measurement normalized to account for the surface area of the generally planar surface; a normalized warp of not greater than 0.190 μm/ cm 2, wherein the warp is normalized to account for the surface area of the sapphire substrate; or any combination thereof.
A system, comprising: a combined engine electronic controller -generator control unit module configured to be powered by a common AC power signal, the combined EEC-GCU module comprising a processor, the system further comprises a generator control unit hardware including power conditioning and conversion electronics in communication with the processor, the system further comprising a compound AC generator comprising a permanent magnet generator configured to generate a common AC power signal, wherein the processor is configured to generate commands to the GCU hardware to control the compound AC generator comprising the permanent magnet generator configured to generate the common AC power signal, wherein the processor is further an engine electronic controller module configured to perform engine electronic controller functions to control an engine, wherein the PMG is coupled to the combined EEC-GCU module to supply the AC power signal to the combined EEC-GCU module, and wherein the processor and the power conditioning and conversion electronics are configured to perform both EEC and GCU functions. a combined engine electronic controller -generator control unit module configured to be powered by a common AC power signal, the combined EEC-GCU module comprising a processor, the system further comprises a generator control unit hardware including power conditioning and conversion electronics in communication with the processor, the system further comprising a compound AC generator comprising a permanent magnet generator configured to generate a common AC power signal, wherein the processor is configured to generate commands to the GCU hardware to control the compound AC generator comprising the permanent magnet generator configured to generate the common AC power signal, wherein the processor is further an engine electronic controller module configured to perform engine electronic controller functions to control an engine, wherein the PMG is coupled to the combined EEC-GCU module to supply the AC power signal to the combined EEC-GCU module, and wherein the processor and the power conditioning and conversion electronics are configured to perform both EEC and GCU functions.
Ternary composition based on ubidecarenone, or the coenzyme Q10 or CoQ10, characterized in that it consists of three components or classes of components: CoQ10, one or more specific hydrophylic carriers selected from the maltodextrins class and one or more adjuvant agents selected from the sucrose-esters class.
A leadless pacemaker device configured to provide for an intra-cardiac pacing, the leadless pacemaker device comprising: a housing; an electrode arrangement arranged on the housing and configured to receive electrical signals; and a processing circuitry enclosed in the housing and operatively connected to the electrode arrangement, wherein the processing circuitry comprises a first processing channel having a first gain for processing a first processing signal derived from electrical signals received via the electrode arrangement and a second processing channel having a second gain for processing a second processing signal derived from electrical signals received via the electrode arrangement, the second gain being higher than the first gain, wherein the second processing channel comprises a processing stage that is configured to differentiate one wave portion from another wave portion in the second processing signal and apply, to the second processing signal, a blanking window for excluding a portion of the second processing signal from further processing; and wherein the second processing channel comprises an amplification stage for amplifying the second processing signal, wherein the amplification stage is switched off during said blanking window (Tblank). a housing; an electrode arrangement arranged on the housing and configured to receive electrical signals; and a processing circuitry enclosed in the housing and operatively connected to the electrode arrangement, wherein the processing circuitry comprises a first processing channel having a first gain for processing a first processing signal derived from electrical signals received via the electrode arrangement and a second processing channel having a second gain for processing a second processing signal derived from electrical signals received via the electrode arrangement, the second gain being higher than the first gain, wherein the second processing channel comprises a processing stage that is configured to differentiate one wave portion from another wave portion in the second processing signal and apply, to the second processing signal, a blanking window for excluding a portion of the second processing signal from further processing; and wherein the second processing channel comprises an amplification stage for amplifying the second processing signal, wherein the amplification stage is switched off during said blanking window (Tblank).
A bearing system for a retaining wall, in particular a substantially vertical retaining wall, including: - a strut for supporting, at an angle and through an upper end, the retaining wall, the strut extending along a longitudinal direction between the upper end and a lower end, and - a coupling device for coupling the upper end of the strut to said retaining wall, said coupling device is distinct from the strut, and includes: - a fixing device for fixing the coupling device to said retaining wall; and - an upper abutment configured, when the coupling device couples the upper end to the retaining wall, to block the displacement of the upper end of the strut upwards, said bearing system being such that the strut comprises, at its upper end, a plate extending substantially in a plane which is inclined relative to the axis of the strut and configured to extend substantially parallel to said vertical wall when the strut is mounted in the coupling device. - a strut for supporting, at an angle and through an upper end, the retaining wall, the strut extending along a longitudinal direction between the upper end and a lower end, and - a coupling device for coupling the upper end of the strut to said retaining wall, - a fixing device for fixing the coupling device to said retaining wall; and - an upper abutment configured, when the coupling device couples the upper end to the retaining wall, to block the displacement of the upper end of the strut upwards,
A fire-retardant shutter comprising: - a first layer made of a fire-resistant material comprising furrows forming a concave surface and ridges forming a convex surface in an alternate and parallel pattern, - an intumescent material positioned at least partially inside the concave surface of at least one furrow and - at least one additional layer coupled to the first layer of the fire-resistant material, such as to form a closed space encasing the intumescent material, characterized in that said additional layer is made of a flexible material or a film. - a first layer made of a fire-resistant material comprising furrows forming a concave surface and ridges forming a convex surface in an alternate and parallel pattern, - an intumescent material positioned at least partially inside the concave surface of at least one furrow and - at least one additional layer coupled to the first layer of the fire-resistant material, such as to form a closed space encasing the intumescent material,
Automotive milling machine (1a,1b), in particular road milling machine or surface miner, - with a machine frame having a longitudinal axis, - with a chassis having wheels or crawler track units supporting the machine frame, - with a controller for the travelling, steering and milling operation, - with a height-adjustable working drum, - with a slewable last or single transport conveyor of specified length arranged in front of or behind the working drum as seen in the direction of travel of the milling machine (1a,1b), - the transport conveyor being, as a minimum, slewable sideways about an substantially vertical first axis under a slewing angle, characterized in that the controller comprises a detection and control system which, as a minimum, detects the steering angle of the steering controller for the chassis or, as a minimum, the steering angle of the steering controller and the distance travelled or the steering angle of the steering controller and the travel speed, and controls the slewing angle of the transport conveyor in accordance with this at least one parameter or set of parameters. - with a machine frame having a longitudinal axis, - with a chassis having wheels or crawler track units supporting the machine frame, - with a controller for the travelling, steering and milling operation, - with a height-adjustable working drum, - with a slewable last or single transport conveyor of specified length arranged in front of or behind the working drum as seen in the direction of travel of the milling machine (1a,1b), - the transport conveyor being, as a minimum, slewable sideways about an substantially vertical first axis under a slewing angle,
A pectin- or gelatin-based antimicrobial surface coating material comprising disodium octaborate in an amount of 15% by mass and exhibiting antibacterial properties against Escherichia coli, Staphylococcus aureus, Pseudomonas aeruginosa bacteria and anticandidal properties against Candida albicans yeast and antifungal properties against Aspergillus niger fungus.
An isolated epitope comprising X 1 -X 2 -X 3 -X 4 -X 5, wherein binding of a ligand to the epitope on activated T-cells induces death of the cells, and X 1 is Tyr, Trp, His, or Met; X 2 is Asp; X 3 is Ser, Phe, Pro, Glu, or His; X 4 is any amino acid; and X 5 is Pro, Tyr, His, or Trp, and further wherein the epitope is not SEQ ID NO:5.
A nozzle for use in a flow cytometer apparatus for sorting animal sperm cells in a fluid stream by chromosome content characterised in that the nozzle includes: a nozzle body having an interior surface and an orifice through which a fluid stream is adapted to flow; the interior surface of the nozzle including first, second and third axially tapered regions for progressively accelerating the speed of a fluid stream in a downstream direction toward the nozzle orifice each of the regions having elliptical cross sectional shapes for applying torsional forces to the fluid stream the torsional forces tending to bring sperm cells in the stream into a desired orientation, wherein the elliptical cross sectional shapes of the first and second regions are oriented in the same direction to define a first torsional zone, the elliptical cross sectional shape of the third region, constitutes a second torsional zone, which is oriented at 90 degrees relative to the elliptical cross sectional shapes of the first and second regions. a nozzle body having an interior surface and an orifice through which a fluid stream is adapted to flow; the interior surface of the nozzle including first, second and third axially tapered regions for progressively accelerating the speed of a fluid stream in a downstream direction toward the nozzle orifice each of the regions having elliptical cross sectional shapes for applying torsional forces to the fluid stream the torsional forces tending to bring sperm cells in the stream into a desired orientation, wherein the elliptical cross sectional shapes of the first and second regions are oriented in the same direction to define a first torsional zone, the elliptical cross sectional shape of the third region, constitutes a second torsional zone, which is oriented at 90 degrees relative to the elliptical cross sectional shapes of the first and second regions.
A data transmission method, used to transmit data in a discontinuous reception, DRX, mechanism, wherein the method comprises: receiving, by a terminal in a DRX active period, first grant information sent by a radio access network, RAN, device, wherein the first grant information is used to perform initial transmission grant for first data; receiving, by the terminal in a retransmission active time, second grant information sent by the RAN device, wherein the second grant information is used to perform initial transmission grant for second data, and the retransmission active time is an active time in which the terminal expects to receive a retransmission grant for the first data; and remaining, by the terminal, in an active state in an activation extension time that is after receiving of the second grant information, wherein the first data is empty, wherein the first grant information is used to perform uplink initial transmission grant for the first data, and the retransmission active time comprises an uplink retransmission active time, wherein the uplink retransmission active time is an active time in which the terminal expects to receive an uplink retransmission grant for the first data; or the first grant information is used to perform downlink initial transmission grant for the first data, the retransmission active time comprises a downlink retransmission active time, and the downlink retransmission active time is an active time in which the terminal expects to receive a downlink retransmission grant for the first data. receiving, by a terminal in a DRX active period, first grant information sent by a radio access network, RAN, device, wherein the first grant information is used to perform initial transmission grant for first data; receiving, by the terminal in a retransmission active time, second grant information sent by the RAN device, wherein the second grant information is used to perform initial transmission grant for second data, and the retransmission active time is an active time in which the terminal expects to receive a retransmission grant for the first data; and remaining, by the terminal, in an active state in an activation extension time that is after receiving of the second grant information, wherein the first data is empty, wherein the first grant information is used to perform uplink initial transmission grant for the first data, and the retransmission active time comprises an uplink retransmission active time, wherein the uplink retransmission active time is an active time in which the terminal expects to receive an uplink retransmission grant for the first data; or the first grant information is used to perform downlink initial transmission grant for the first data, the retransmission active time comprises a downlink retransmission active time, and the downlink retransmission active time is an active time in which the terminal expects to receive a downlink retransmission grant for the first data.
Extreme UV radiation generating device, comprising a plasma generating device, at least one tin supply system having a supply reservoir in fluid communication with said plasma generating device adapted to supply said plasma generating device with liquid tin, whereby said tin supply system comprises at least one supply means for the supply of tin, said supply means including at least one vessel and/or at least one reservoir and/or at least one tubing capable of generating, containing and/or transporting liquid tin, whereby at least the part of said supply means, which is in direct exposure to the liquid tin when the EUV radiation generating device is in operation, is at least partly coated with at least one covalent inorganic solid material.
A multivariable fluid level detection system comprising: a guided wave radar probe; a first sensor integral (24a-24n) to the probe for producing a first sensor signal that is a function of a first sensed parameter, wherein the first sensor (24a-24n) comprises a force sensor and the first sensed parameter is force or acceleration of the probe; a transmitter for transmitting guided microwave pulses down the probe; a receiver for receiving reflected microwave pulses; a processor for producing a measurement of fluid level based upon a time difference between transmission of a pulse and receipt of a reflected pulse and upon the first sensed parameter. a guided wave radar probe; a first sensor integral (24a-24n) to the probe for producing a first sensor signal that is a function of a first sensed parameter, wherein the first sensor (24a-24n) comprises a force sensor and the first sensed parameter is force or acceleration of the probe; a transmitter for transmitting guided microwave pulses down the probe; a receiver for receiving reflected microwave pulses; a processor for producing a measurement of fluid level based upon a time difference between transmission of a pulse and receipt of a reflected pulse and upon the first sensed parameter.
Method for cleaning a catalyst slurry preparation system, said catalyst slurry preparation system comprising at least one or more mud pot(s) operably connected to a mixing vessel by means of one or more conduits (6, 7) characterized in that the catalyst slurry preparation system is adapted for the preparation of metallocene, chromium or Ziegler-Natta catalyst, and is connected to a polymerization loop reactor, and that the method comprises at least one step of rinsing said catalyst slurry preparation system, or one or more parts thereof, with an aqueous catalyst inactivation agent, wherein said aqueous catalyst inactivation agent is injected into said catalyst slurry preparation system at a pressure comprised between 100 and 2000 bar.
A membrane electrode assembly, comprising: an electrolyte layer; a catalyst layer: and a member arranged between the electrolyte layer and the catalyst layer, the member being impregnated with electrolyte, wherein at least a part of a peripheral edge portion of the member extends outside peripheral edge portions of the electrolyte layer and the catalyst layer. an electrolyte layer; a catalyst layer: and a member arranged between the electrolyte layer and the catalyst layer, the member being impregnated with electrolyte, wherein at least a part of a peripheral edge portion of the member extends outside peripheral edge portions of the electrolyte layer and the catalyst layer.