mhurhangee/ep-ind-claims huggingface dataset:
A device for hypoxia training comprising: one or more electrochemical cells, a power supply connected to the one or more electrochemical cells, and a mask, characterized in that each of the one or more electrochemical cells comprises a cathode and an anode separated by a proton exchange membrane, each of the anode and cathode being in communication with an input and an output, wherein the input of the cathode is in fluid communication with ambient air, and the input of the anode is in fluid communication with a source of liquid water, the mask is in fluid communication with the output from the cathode of the one or more electrochemical cells, and oxygen is removed from the ambient air during contact with the cathode when hydrogen ions separated from liquid water by a catalyst on the anode convert oxygen in the ambient air into water. one or more electrochemical cells, a power supply connected to the one or more electrochemical cells, and a mask, characterized in that each of the one or more electrochemical cells comprises a cathode and an anode separated by a proton exchange membrane, each of the anode and cathode being in communication with an input and an output, wherein the input of the cathode is in fluid communication with ambient air, and the input of the anode is in fluid communication with a source of liquid water, the mask is in fluid communication with the output from the cathode of the one or more electrochemical cells, and oxygen is removed from the ambient air during contact with the cathode when hydrogen ions separated from liquid water by a catalyst on the anode convert oxygen in the ambient air into water.
A co-attrited stabilizer composition comprising: i) microcrystalline cellulose and ii) at least 4 wt.% of carboxymethyl cellulose, based on a total weight of components i)-ii), and wherein said carboxymethyl cellulose has a degree of substitution of from 0.95-1.5 and a Brookfield viscosity of less than 100 cps measured using a Brookfield viscometer at 2% solids in water at 25 °C, 60 rpm and spindle #1. i) microcrystalline cellulose and ii) at least 4 wt.% of carboxymethyl cellulose, based on a total weight of components i)-ii), and
A boom for backhoes and other work machinery comprising: a first boom having, on a base end side thereof, pivoted coupling member for pivotally coupling to a boom support section of a running body; and a second boom in which a base end side of the second boom is pivotally coupled to a distal end side of the first boom and in which an arm is pivotably coupled to the distal end side of the second boom; main body portions (27; 51) of the first boom and the second boom being formed in a hollow shape from left and right side walls (29; 52) and top and bottom walls (30, 31; 53, 54); characterized in that a lateral width of the main body portion of the second boom is set to be smaller in a second region of the base end side than in a first region of the distal end side; and the base end side of the second region of the second boom is inserted between the left and right side walls of the distal end side of the first boom, and the second boom is pivotably coupled to the first boom so as to be capable of rotation about a lateral axis, whereby a lateral width of the base end side of the first boom is the same width as a standard boom, and the pivoted coupling member of the base end side of the first boom can thereby be shared (dually used) with a pivoted coupling member of the standard boom. a first boom having, on a base end side thereof, pivoted coupling member for pivotally coupling to a boom support section of a running body; and a second boom in which a base end side of the second boom is pivotally coupled to a distal end side of the first boom and in which an arm is pivotably coupled to the distal end side of the second boom; main body portions (27; 51) of the first boom and the second boom being formed in a hollow shape from left and right side walls (29; 52) and top and bottom walls (30, 31; 53, 54); characterized in that a lateral width of the main body portion of the second boom is set to be smaller in a second region of the base end side than in a first region of the distal end side; and the base end side of the second region of the second boom is inserted between the left and right side walls of the distal end side of the first boom, and the second boom is pivotably coupled to the first boom so as to be capable of rotation about a lateral axis, whereby a lateral width of the base end side of the first boom is the same width as a standard boom, and the pivoted coupling member of the base end side of the first boom can thereby be shared (dually used) with a pivoted coupling member of the standard boom.
A method of a user equipment, UE, the method comprising: generating a first sequence by multiplying a second sequence with e jαn, 0 ≦ n ≦ 11, wherein the second sequence is a base sequence R(n), wherein a value of α is determined based on a value of k corresponding to a two bit-pair of values of Hybrid Automatic Repeat Request- acknowledgement, HARQ-ACK, information bits, each bit of the HARQ-ACK information bits being: 0 representing a negative acknowledgement, NACK; or 1 representing a positive acknowledgement, ACK, wherein α=2πk/12, 0≦k≦11; and transmitting a Physical Uplink Control Channel, PUCCH, generated based on the first sequence to a base station. generating a first sequence by multiplying a second sequence with e jαn, 0 ≦ n ≦ 11, wherein the second sequence is a base sequence R(n), wherein a value of α is determined based on a value of k corresponding to a two bit-pair of values of Hybrid Automatic Repeat Request- acknowledgement, HARQ-ACK, information bits, each bit of the HARQ-ACK information bits being: 0 representing a negative acknowledgement, NACK; or 1 representing a positive acknowledgement, ACK, wherein α=2πk/12, 0≦k≦11; and wherein the second sequence is a base sequence R(n), wherein a value of α is determined based on a value of k corresponding to a two bit-pair of values of Hybrid Automatic Repeat Request- acknowledgement, HARQ-ACK, information bits, each bit of the HARQ-ACK information bits being: 0 representing a negative acknowledgement, NACK; or 1 representing a positive acknowledgement, ACK, transmitting a Physical Uplink Control Channel, PUCCH, generated based on the first sequence to a base station.
Device for the integrated display of information on a watercraft, wherein the information is formed from multiple information categories, wherein a first information category is formed from cartographic information elements, wherein a second information category is formed from sonar information elements, wherein a third information category is formed from ship information elements, wherein the device comprises at least one first means for data acquisition, wherein the device comprises at least one first means for data processing, wherein the device comprises at least one first display means, wherein the at least one first means for data acquisition comprises at least one first interface to the sonar system, wherein the at least one first means for data acquisition comprises at least one second interface to the ship system, wherein the at least one first means for data acquisition comprises at least one third interface to the ship database, wherein the cartographic information elements can be acquired via the third interface, wherein the sonar information elements can be acquired via the first interface, wherein the ship information elements can be acquired by way of the second interface, wherein the at least one first means for data processing is designed for correlation of the first information category, the second information category, and the third information category, wherein the at least one first display means is designed to display the information obtained by correlation of the information categories, wherein the at least one first means for data processing is designed to carry out a method for computing a route for a watercraft; characterized in that the at least one first means for data processing is designed to compute a location-dependent detection probability as a function of the sonar information elements and the ship information elements, wherein ship position, battery level, and quantity of available fuel are ship information elements, wherein, for the computation of the route, a range of the watercraft is determined as a function of the battery level and the quantity of available fuel, wherein, for the computation of the route, further fluid vehicles are searched for using the sonar receiver, wherein, for the computation of the route, information relating to the position and type of a further fluid vehicle is obtained by evaluating the data received using the sonar receivers, wherein, for the computation of the route, a minimum distance to the further fluid vehicle is computed from a maximum detection probability and a detection range of the further fluid vehicle.
An arrangement for controlling the electric power transmission in a high voltage direct current, HVDC, power transmission system comprising at least one HVDC transmission or distribution line (102, 104, 106, 108, 110, 112, 114) for carrying direct current, DC, wherein the arrangement comprises an apparatus (302; 502; 702; 902) connectable to the HVDC transmission or distribution line, the apparatus being arranged to control the direct current of the HVDC transmission or distribution line by introducing a DC voltage in series with the HVDC transmission or distribution line, wherein the arrangement comprises a protection device (136; 155; 159; 164; 174; 903) for protecting the apparatus against over-current or overvoltage occurrences, the protection device comprising a bypass device (138; 153; 161; 172) connectable to the HVDC transmission or distribution line and connected in parallel with the apparatus, the bypass device being arranged to be in a non-conducting mode, the bypass device being arranged to be set to a conducting mode during which it is arranged to conduct direct current of the HVDC transmission or distribution line to electrically bypass the apparatus, the bypass device (138; 153; 161; 172) comprising a first bypass unit comprising a first switch switchable between a non-conducting mode and a conducting mode during which it is arranged to conduct direct current of the HVDC transmission or distribution line to electrically bypass the apparatus for protecting the apparatus against over-current or overvoltage occurrences, characterized in that the first bypass unit further comprises a second switch connected in series with the first switch, the second switch being switchable between a non-conducting mode and a conducting mode during which it is arranged to conduct direct current of the HVDC transmission or distribution line to electrically bypass the apparatus for protecting the apparatus against over-current or overvoltage occurrences, and in that the first switch comprises a mechanical switch and the second switch comprises at least one electronic switch.
A composite fixed edge of an aircraft wing, comprising: a composite wing box skin panel (206, 208), attached to an outward wing spar in an attachment region, with an overhanging edge, having substantially constant thickness and ply count in the attachment region; and a composite ramp, upon an outer surface of, and co-cured with, the composite wing box skin panel, having a proximal end and a distal end, with a maximum ramp thickness (t) at the distal end, the distal end being set back from the overhanging edge, defining a shoulder on the overhanging edge, wherein the distal end of the composite ramp and the shoulder are formed by machining the overhanging edge of the composite wing box skin panel with the co-cured composite ramp; and a composite wing edge skin panel, having a thickness substantially equal to the maximum ramp thickness, attached to the composite wing box skin panel at the shoulder and adjacent to the distal end of the ramp; wherein the composite wing edge skin panel is directly attachable to the composite wing box skin panel without the use of splice straps, joggled panels, wiggle plates or secondarily bonded fillers. a composite wing box skin panel (206, 208), attached to an outward wing spar in an attachment region, with an overhanging edge, having substantially constant thickness and ply count in the attachment region; and a composite ramp, upon an outer surface of, and co-cured with, the composite wing box skin panel, having a proximal end and a distal end, with a maximum ramp thickness (t) at the distal end, the distal end being set back from the overhanging edge, defining a shoulder on the overhanging edge, wherein the distal end of the composite ramp and the shoulder are formed by machining the overhanging edge of the composite wing box skin panel with the co-cured composite ramp; and substantially constant thickness and ply count in the attachment region; and a composite ramp, upon an outer surface of, and co-cured with, the composite wing box skin panel, having a proximal end and a distal end, with a maximum ramp thickness (t) at the distal end, the distal end being set back from the overhanging edge, defining a shoulder on the overhanging edge, wherein the distal end of the composite ramp and the shoulder are formed by machining the overhanging edge of the composite wing box skin panel with the co-cured composite ramp; and a composite wing edge skin panel, having a thickness substantially equal to the maximum ramp thickness, attached to the composite wing box skin panel at the shoulder and adjacent to the distal end of the ramp; wherein the composite wing edge skin panel is directly attachable to the composite wing box skin panel without the use of splice straps, joggled panels, wiggle plates or secondarily bonded fillers.
A system to launch an aircraft, comprising: a launch arm comprising at least one load cell; an unmanned aerial vehicle coupled to the launch arm and comprising at least one thrust generator and a flight control system; and a release mechanism in communication with the at least one load cell; characterized in that the release mechanism releases the unmanned aerial vehicle when the at least one load cell indicates that a load on the launch arm is below a predetermined threshold wherein the flight control system receives feedback from the at least one load cell and adjusts the thrust generator and one or more control surfaces on the unmanned aerial vehicle to reduce the load on the launch arm below said predetermined threshold. a launch arm comprising at least one load cell; an unmanned aerial vehicle coupled to the launch arm and comprising at least one thrust generator and a flight control system; and a release mechanism in communication with the at least one load cell; characterized in that the release mechanism releases the unmanned aerial vehicle when the at least one load cell indicates that a load on the launch arm is below a predetermined threshold wherein the flight control system receives feedback from the at least one load cell and adjusts the thrust generator and one or more control surfaces on the unmanned aerial vehicle to reduce the load on the launch arm below said predetermined threshold.
A biological pest control device which comprises a top part defining grooves in its ends (1a, 1b), said top part being coupled over a container capsule (b) with beneficial insects or substances that help to control pests, wherein the top part has a lower face substantially concave and on the upper face of the container capsule (b) there is formed a concavity thereby defining between the lower face of the top part and the external upper surface of the container capsule (b) a cavity, extending from side to side of the device, which is capable of housing a linear element to suspend the biological pest control device; wherein the top part has extra drainage channels for extreme rains, located in the inner faces of the top part, and the container capsule has an exit facing an inner face of the top part, said exit being above the level to which water can get accumulated, between a capsule and the top part when water flows along the linear element that goes through the device from side to side, so that water does not enter the capsule.
Method for producing a foil arrangement, wherein the method comprises the following method steps: - structuring a conductive foil applied or to be applied to a carrier foil top side of a carrier foil; - coating a conductive foil top side of the structured conductive foil with a protective layer protecting against corrosion; and - laminating a cover foil onto the carrier foil top side and onto a protective layer top side of the protective layer after the coating. - structuring a conductive foil applied or to be applied to a carrier foil top side of a carrier foil; - coating a conductive foil top side of the structured conductive foil with a protective layer protecting against corrosion; and - laminating a cover foil onto the carrier foil top side and onto a protective layer top side of the protective layer after the coating.
Nucleotomy device making it possible, from a trans-osseous approach previously pierced in the body of a vertebra Va, to produce a nucleic space Es in an intervertebral disc Di, which device comprises a tool holder provided with first connection means ensuring the placement of an electric rotary driving motor, second connection means for the placement of a blade cutting tool, drive means imparting rotational and longitudinal translational movements to the cutting tool, characterized in that said drive means are made up of a cylindrical linking sleeve guided in translation inside the main body and comprising, on the one hand, in its inner part, a freely rotating transmission shaft which cooperates with the linking shaft of the first connection means to ensure rotational driving of the cutting tool, and, on the other hand, on its outer periphery and opposite one another, guide fingers (7c, 7d), respectively passing through an oblong groove formed in the main body of the tool holder to cooperate with branches (2j and 2k) of a fork secured to a movable handle to ensure the translational movements of the cutting tool and of the injection and suction means making it possible to evacuate the nucleus debris resulting from the cut during the performing of the latter inside the intervertebral disc.
Method for producing a fibre reinforced composite element from a fibre composite, wherein a fibre material of the fibre composite is placed in a mould, the fibre material which is placed in the mould is infused with a matrix material, and subsequently the matrix material which is infused into the fibre material is cured, wherein a mould is made available on which at least one sensor for monitoring the flow front of the matrix material during the infusion is arranged, comprising - acquiring sensor signals by means of the at least one sensor during the infusion at least within a time period in which the matrix material wets the boundary layer between the mould surface and the fibre material at the sensor position of the sensor, wherein the sensor signal correlates with the wetted area of the boundary layer between the mould surface and the fibre material at the given sensor position, and, by means of an evaluation unit, - determining a sensor signal progression over time from the acquired sensor signals, and - calculating a flow front speed during the infusion of the matrix material as a function of a change in the sensor signal which is derived from the sensor signal progression over time and a known sensor dimension and/or a sensor area of the sensor supplying the sensor signal, and/or - calculating a flow front direction at non-rotationally-symmetrical sensor cross sections with respect to the mould during the infusion of the matrix material as a function of a change in the sensor signal which is derived from the sensor signal progression over time and a sensor orientation with respect to the mould. - acquiring sensor signals by means of the at least one sensor during the infusion at least within a time period in which the matrix material wets the boundary layer between the mould surface and the fibre material at the sensor position of the sensor, wherein the sensor signal correlates with the wetted area of the boundary layer between the mould surface and the fibre material at the given sensor position, and, by means of an evaluation unit, - determining a sensor signal progression over time from the acquired sensor signals, and - calculating a flow front speed during the infusion of the matrix material as a function of a change in the sensor signal which is derived from the sensor signal progression over time and a known sensor dimension and/or a sensor area of the sensor supplying the sensor signal, and/or - calculating a flow front direction at non-rotationally-symmetrical sensor cross sections with respect to the mould during the infusion of the matrix material as a function of a change in the sensor signal which is derived from the sensor signal progression over time and a sensor orientation with respect to the mould.
A method for operating a card-based system which comprises a customer-related communications terminal (50, 100) and, separated therefrom, a customer-related card administration device in which a plurality of customer-related cards (90, 91) are installed, which are configured as hardware modules, the method comprising the steps of: a) establishing a secure connection between the communications terminal (50, 100) and the card administration device; b) performing an authentication between the communications terminal (50, 100) and the card administration device in order to authenticate the communications terminal (50, 100); c) selecting, at the communications terminal (50, 100), one card from a plurality of customer-related cards (90, 91) installed in the card administration device and configured as hardware modules; and d) executing a card-based application which communicates via the communications terminal (50, 100) and the secure connection with the customer-related card (90, 91) selected in step c), which is installed in the card administration device. a) establishing a secure connection between the communications terminal (50, 100) and the card administration device; b) performing an authentication between the communications terminal (50, 100) and the card administration device in order to authenticate the communications terminal (50, 100); c) selecting, at the communications terminal (50, 100), one card from a plurality of customer-related cards (90, 91) installed in the card administration device and configured as hardware modules; and d) executing a card-based application which communicates via the communications terminal (50, 100) and the secure connection with the customer-related card (90, 91) selected in step c), which is installed in the card administration device.