mhurhangee/ep-ind-claims huggingface dataset:
Process for the production of a packaging material, obtained with the use of recycled cellulosic fibres, having barrier properties against migration of mineral oils consisting of saturated and/or aromatic hydrocarbons and/or their volatile components having from 10 to 25 carbon atoms, comprising a first surface treatment of said packaging material for the formation of a first acrylic polymer coating characterised in that it comprises a second surface treatment for the application of a second coating of a cyclic olefin copolymer coating on said first coating of acrylic polymer, the total amount of said first and second coating being between 15 and 50 g/m 2, wherein said acrylic polymer coating is applied with the use of a solution of said acrylic polymer in a solvent selected from chloroform, toluene, ethyl acetate or acetone.
A method of sorting and dispensing microparticles, comprising: passing a microparticle surrounded by fluid into a flow switch; changing a flow rate of the fluid surrounding the microparticle from a first flow rate to a second flow rate when the microparticle has a predetermined characteristic and is present in the flow switch by opening a valve controlling flow into the flow switch from a source of pressurized fluid; and passing the microparticle through the flow switch into a waste outlet flow path when the fluid surrounding the microparticle is traveling through the flow switch at approximately the first flow rate, or passing the microparticle through the flow switch into a sample outlet flow path and dispensing the microparticle as a droplet out of the sample outlet flow path when the fluid surrounding the microparticle is traveling through the flow switch at approximately the second flow rate, wherein a static fluid pressure in the waste outlet flow path is lower than a static fluid pressure in the sample outlet flow path. passing a microparticle surrounded by fluid into a flow switch; changing a flow rate of the fluid surrounding the microparticle from a first flow rate to a second flow rate when the microparticle has a predetermined characteristic and is present in the flow switch by opening a valve controlling flow into the flow switch from a source of pressurized fluid; and passing the microparticle through the flow switch into a waste outlet flow path when the fluid surrounding the microparticle is traveling through the flow switch at approximately the first flow rate, or passing the microparticle through the flow switch into a sample outlet flow path and dispensing the microparticle as a droplet out of the sample outlet flow path when the fluid surrounding the microparticle is traveling through the flow switch at approximately the second flow rate, wherein a static fluid pressure in the waste outlet flow path is lower than a static fluid pressure in the sample outlet flow path.
A method of mounting a rotary scale member (4, 104, 304, 400, 500, 600, 700, 800, 900, 1000, 1100) on a part, the rotary scale member comprising a body (5, 105, 305) on which a series of position features defining a scale (8, 108, 308) is provided, and at least one flexure (16, 116, 316, 416, 516, 616, 716, 816, 916, 1016, 1116), the method comprising: force-fitting the rotary scale member and the part together, whereby the at least one flexure is displaced and thereby urges the rotary scale member via a radial reaction force into engagement with the part so as to form a friction fit with the part such that the body of the rotary scale member self-locates at an initial default radial location with respect to the part; and tweaking the radial location of the body relative to the part away from its initial default radial location to a new radial location; wherein the body is maintained, secured or fixed at the new radial location. force-fitting the rotary scale member and the part together, whereby the at least one flexure is displaced and thereby urges the rotary scale member via a radial reaction force into engagement with the part so as to form a friction fit with the part such that the body of the rotary scale member self-locates at an initial default radial location with respect to the part; and tweaking the radial location of the body relative to the part away from its initial default radial location to a new radial location; wherein the body is maintained, secured or fixed at the new radial location.
Method for generating a signature for a data file to be sent to a recipient by a sender, comprising the steps of: - providing a number of digitized biometric features; - determining a first point in time; - determining a first time interval within which the first point in time falls; - generating a first signature, which comprises a number of positions, on the basis of the first time interval using a first formula, characterized in that each position is filled with one of the digitized biometric features in accordance with a selection from the number of digitized biometric features, the selection being determined by the first formula, the selection differing per time interval, wherein the method further comprises the steps of: deriving a numerical value from the data file; generating a further signature on the basis of a further time interval using the first formula, which further time interval is a function of the first time interval and of the numerical value. - providing a number of digitized biometric features; - determining a first point in time; - determining a first time interval within which the first point in time falls; - generating a first signature, which comprises a number of positions, on the basis of the first time interval using a first formula, deriving a numerical value from the data file; generating a further signature on the basis of a further time interval using the first formula, which further time interval is a function of the first time interval and of the numerical value.
A method of updating a unique device identifier stored at a mobile application server when the user replaces a wireless communications device with a new wireless communications device, the method comprising: receiving, at the mobile application server, a new unique device identifier from the new wireless communications device; sending an acknowledgement of receipt of the new unique device identifier from the mobile application server to the new wireless communications device; storing the new unique device identifier; and communicating the new unique device identifier to all other devices identified by the mobile application server as being associated with a contact of the user. receiving, at the mobile application server, a new unique device identifier from the new wireless communications device; sending an acknowledgement of receipt of the new unique device identifier from the mobile application server to the new wireless communications device; storing the new unique device identifier; and communicating the new unique device identifier to all other devices identified by the mobile application server as being associated with a contact of the user.
3-(5-Fluoroindolyl)-4-phenylmaleimide compounds of formula wherein R 1 is methoxy; and R 2 is (CH 3) 2 CHCH 2 CH(NH 2)C OCH 2 CH 2 -, hydroxyethyl or hydroxypropyl; and the physiologically acceptable salts, solvates and solvates of the salts of the compounds of formula. R 1 is methoxy; and R 2 is (CH 3) 2 CHCH 2 CH(NH 2)C OCH 2 CH 2 -, hydroxyethyl or hydroxypropyl;
A method of controlling a power system comprising the steps of: (a) providing at least two alternative sources of power (64,66) for delivering power to a power bus; (b) providing switches (68,70) between each of said at least two sources of power and said power bus; (c) powering said power bus with a first of said at least two sources of power, and monitoring the voltage of the power supplied by said at least two sources of power, and switching from said first source of power to a second of said at least two sources of power by opening a switch associated with said first source of power, and closing a switch associated with said second source of power, and the switching being performed at a point (85,87;88) such that the monitored voltage of the power supplied by said first source of power is at the same level as the monitored voltage of the power supplied by said second source of power to minimize an apparent break in the power supplied to the power bus, characterized in that the power system is a DC power system. (a) providing at least two alternative sources of power (64,66) for delivering power to a power bus; (b) providing switches (68,70) between each of said at least two sources of power and said power bus; (c) powering said power bus with a first of said at least two sources of power, and monitoring the voltage of the power supplied by said at least two sources of power, and switching from said first source of power to a second of said at least two sources of power by opening a switch associated with said first source of power, and closing a switch associated with said second source of power, and the switching being performed at a point (85,87;88) such that the monitored voltage of the power supplied by said first source of power is at the same level as the monitored voltage of the power supplied by said second source of power to minimize an apparent break in the power supplied to the power bus, characterized in that the power system is a DC power system.
Centrifugal spreader for distributing spreading material, having a spreading material container and at least one spreading disc with spreading blades; a drive (8, 9) for driving the spreading disc in rotation; a torque sensor for measuring the torque of the drive (8, 9); a metering device which can be controlled by a computer-aided control device, wherein the control device is embodied in such a way that an actual mass flow is compared with a predefined target mass flow, and wherein the actual mass flow is assigned to the measured torque by means of an operating characteristic curve (BE1, BE2); a setting device for setting the centrifugal spreader to different operating states, such as, for example, to the velocity, to the type of distributor disc, to the type of spreading disc, to the target quantity of spreading material per unit surface area, to the working width, to the type of spreading material and to the rotational speed, wherein the operating states are each assigned one or more parameter values of setting parameters, and having a computer in which the parameter values can be input; wherein a base characteristic curve, dependent on the setting parameters, for the mass flow is stored in the computer, an input device for the inputting of parameter values into the computer by a user is provided, by means of which input device one or more of the parameter values which are associated with the respective operating state are input, after the inputting of the parameter values from the base characteristic curve the computer calculates the operating characteristic curve (BE1, BE2) with which the actual mass flow is calculated for the control, characterized in that the operating characteristic curve (BE1, BE2) is calculated by modifying the base characteristic curve on the basis of a stored computing rule into which the parameter values are input as parameters, and wherein the computing rule is not determined empirically but rather partially by computation.
The compound -1-(3-(3-N,N-dimethylaminocarbonyl)phenoxy1-4-nitrophenyl)-1-ethyl-N,N'-bis(ethylene)phosphoramidate: or anisotopic variant,solvate or hydrate thereof.
An electronic device comprising: a housing including a first plate, a second plate facing the first plate, 5 and a side member surrounding a space between the first plate and the second plate; and a circuit board including a wireless communication circuit, wherein the second plate includes a slot filled with a non-conductive material, wherein an area other than the slot is formed of a conductive material 10 (110a, 110b), wherein the circuit board includes a conductive pattern formed along a path following the slot of the second plate and formed on the circuit board, and wherein the wireless communication circuit is configured to: feed one point ('a') adjacent to the slot to receive a signal of a first frequency 15 band through an electrical path formed by the slot; and feed the conductive pattern to receive a signal of a second frequency band through the slot. a housing including a first plate, a second plate facing the first plate, 5 and a side member surrounding a space between the first plate and the second plate; and a circuit board including a wireless communication circuit, wherein the second plate includes a slot filled with a non-conductive material, wherein an area other than the slot is formed of a conductive material 10 (110a, 110b), wherein the circuit board includes a conductive pattern formed along a path following the slot of the second plate and formed on the circuit board, and wherein the wireless communication circuit is configured to: feed one point ('a') adjacent to the slot to receive a signal of a first frequency 15 band through an electrical path formed by the slot; and feed the conductive pattern to receive a signal of a second frequency band through the slot. feed one point ('a') adjacent to the slot to receive a signal of a first frequency 15 band through an electrical path formed by the slot; and feed the conductive pattern to receive a signal of a second frequency band through the slot.
A method of decoding video data, the method comprising: decoding a value of a network abstraction layer, NAL, unit type for a supplemental enhancement information, SEI, NAL unit of a bitstream, wherein the NAL unit type value for the SEI NAL unit indicates whether the NAL unit comprises a prefix SEI NAL unit including a prefix SEI message or a suffix SEI NAL unit including a suffix SEI message; and decoding video data of the bitstream based on whether the SEI NAL unit is a prefix SEI NAL unit, wherein prefix SEI NAL units may not succeed a last video coding layer, VCL, NAL unit in an access unit in decoding order, or whether the SEI NAL unit is a suffix SEI NAL unit, wherein suffix SEI NAL units may succeed the last VCL NAL unit in an access unit in decoding order and shall not precede a first VCL NAL unit in the access unit in decoding order, and based on data of the SEI NAL unit. decoding a value of a network abstraction layer, NAL, unit type for a supplemental enhancement information, SEI, NAL unit of a bitstream, wherein the NAL unit type value for the SEI NAL unit indicates whether the NAL unit comprises a prefix SEI NAL unit including a prefix SEI message or a suffix SEI NAL unit including a suffix SEI message; and decoding video data of the bitstream based on whether the SEI NAL unit is a prefix SEI NAL unit, wherein prefix SEI NAL units may not succeed a last video coding layer, VCL, NAL unit in an access unit in decoding order, or whether the SEI NAL unit is a suffix SEI NAL unit, wherein suffix SEI NAL units may succeed the last VCL NAL unit in an access unit in decoding order and shall not precede a first VCL NAL unit in the access unit in decoding order, and based on data of the SEI NAL unit.
A medical instrument for grasping tissue, comprising a shaft, a working element arrangement arranged at a distal end of the shaft and having a first working element (92; 92a) and a second working element configured to cooperate with one another for grasping tissue, wherein at least the first working element (92; 92a) is movable, so that the working element arrangement can be closed and opened, further comprising a magnet arrangement coupled to the working element arrangement for closing and opening the working element arrangement via attracting and repulsive magnetic forces, respectively, wherein the first and second working elements (92; 92a, 94) are movable, wherein the magnet arrangement has at least three magnets (102; 102a, 104, 110) wherein at least one first magnet (102; 102a) is arranged on the first working element (92; 92a), at least one second magnet is arranged on the at least one second working element, the first and second magnets (102; 102a, 104) having magnetic polarities perpendicular to a longitudinal axis (106, 108) of the first and second working elements (92; 92a, 94), respectively, characterized in that at least one third magnet is arranged between the first and second working elements (92; 92a, 94), the third magnet being rotatable about a rotation axis.
A method for a network node of a cellular communication network, wherein the network node and at least some other network nodes of the cellular communication network are each adapted to support a plurality of beams of a signal beam-forming scheme and to communicate with a wireless communication device using at least one of the plurality of beams, the method comprising: initiating a mobility procedure; identifying (220, 433) interfering signals transmitted by one or more interfering beams (111, 112); decreasing (230, 434) a transmit power level of the identified interfering signals; transmitting an indication regarding the decreased transmit power level of the identified interfering signals to the wireless communication device; and executing at least part of the mobility procedure while the identified interfering signals use the decreased transmit power level. initiating a mobility procedure; identifying (220, 433) interfering signals transmitted by one or more interfering beams (111, 112); decreasing (230, 434) a transmit power level of the identified interfering signals; transmitting an indication regarding the decreased transmit power level of the identified interfering signals to the wireless communication device; and executing at least part of the mobility procedure while the identified interfering signals use the decreased transmit power level.
A cellular signal booster (120, 200, 300, 400, 1100, 1200, 1300, 1400), comprising: a cellular signal amplifier (122, 310, 500, 600, 700, 800, 900, 1000, 1110, 1230, 1310, 1410) configured to amplify signals for a wireless device (110, 312); an integrated device antenna (124, 230, 306, 402, 502, 602, 702, 802, 902, 1002, 1120, 1210, 1320, 1420) coupled to the cellular signal amplifier, wherein the integrated device antenna is configured to transmit signals from the cellular signal amplifier to the wireless device (110, 312); and an integrated node antenna (126, 210, 302, 404, 504, 506, 604, 606, 704, 706, 804, 904, 1004, 1130, 1220, 1330, 1430) coupled to the cellular signal amplifier, wherein the integrated node antenna is configured to transmit signals from the cellular signal amplifier to a base station; said cellular signal booster further comprising a wireless charging circuitry (308, 1140, 1240) configured to wirelessly charge the wireless device when the wireless device is placed in proximity to the signal booster; said booster having a first extremity where said integrated node antenna is located and a second extremity opposite to said first extremity where said integrated device antenna is located; said cellular signal amplifier being coupled to both said antennas and said wireless charging circuit being provided between said integrated device antenna and said cellular signal amplifier. a cellular signal amplifier (122, 310, 500, 600, 700, 800, 900, 1000, 1110, 1230, 1310, 1410) configured to amplify signals for a wireless device (110, 312); an integrated device antenna (124, 230, 306, 402, 502, 602, 702, 802, 902, 1002, 1120, 1210, 1320, 1420) coupled to the cellular signal amplifier, wherein the integrated device antenna is configured to transmit signals from the cellular signal amplifier to the wireless device (110, 312); and an integrated node antenna (126, 210, 302, 404, 504, 506, 604, 606, 704, 706, 804, 904, 1004, 1130, 1220, 1330, 1430) coupled to the cellular signal amplifier, wherein the integrated node antenna is configured to transmit signals from the cellular signal amplifier to a base station; said cellular signal booster further comprising a wireless charging circuitry (308, 1140, 1240) configured to wirelessly charge the wireless device when the wireless device is placed in proximity to the signal booster; said booster having a first extremity where said integrated node antenna is located and a second extremity opposite to said first extremity where said integrated device antenna is located; said cellular signal amplifier being coupled to both said antennas and said wireless charging circuit being provided between said integrated device antenna and said cellular signal amplifier.
A method for allocating resources in packet mode in a GPRS mobile radio communications system in packet mode, which method comprises a step whereby: - a mobile station transmits to the network, for signalling data transfer needs, in a cell supporting the EGPRS Packet Channel Request message, an EGPRS Packet Channel Request message including a cause specifying signalling data transfer needs. - a mobile station transmits to the network, for signalling data transfer needs, in a cell supporting the EGPRS Packet Channel Request message, an EGPRS Packet Channel Request message including a cause specifying signalling data transfer needs.
A vehicle having a lateral lifting device, in particular a side loader, comprising at least a first axle carrier and a second axle carrier, wherein the two axle carriers (3, 4) are coupled with one another by means of a connecting structure that is arranged laterally outside the center, and wherein the lifting device is arranged in a free space between the two axle carriers (3, 4), wherein the connecting structure is arranged at the lateral edge of the axle carriers (3, 4), so that the vehicle is configured in a U shape in a top view, and wherein the two shanks of the vehicle configured in a U shape, which shanks lie in parallel to one another, are formed by the axle carriers (3, 4), and the free space for accommodating the lifting device is configured on the open side of the U-shaped arrangement, wherein the first axle carrier has a first wheel pair, and the second axle carrier has a second wheel pair, wherein each of the individual wheels of the wheel pairs (15, 17) is mounted so as to be rotatable about a vertically oriented axis of rotation, and that the vehicle is movable in a first travel direction parallel to a longitudinal axis of the vehicle and is movable in a second travel direction transverse to the longitudinal axis of the vehicle, wherein a first axle is configured on the first axle carrier, which axle serves for accommodating the first wheel pair, and a second axle is configured on the second axle carrier, which axle serves for accommodating the second wheel pair, wherein the axles (18, 19) are accommodated, in each case, on the axle carrier (3, 4) so as to be mounted in pendulum manner with respect to a horizontal axis of rotation, characterized in that per wheel holder one rotating motor is configured, on which a pinion is arranged and coupled, by means of a mechanical coupling, preferable a circumferential traction means, to a gear configured on the wheel holder, wherein each of the individual wheel holders are rotatable individually and independently from one another relative to the axle carrier (3, 4) or the axle (18, 19).