mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting data in a wireless access system, the method comprising: obtaining a number C of code blocks by an equation C =┌ B /( Z-L)┐, wherein B denotes a size of an input bit sequence, Z denotes a maximum size of the code blocks, and L denotes a size of a cyclic redundancy check CRC to be attached to each of the code blocks; obtaining a size B' of a modified input bit sequence according to an equation B' = B + C * L; generating the code blocks based on the number C of the code blocks and the size B' of the modified input bit sequence; and transmitting the data using the code blocks. obtaining a number C of code blocks by an equation C =┌ B /( Z-L)┐, wherein B denotes a size of an input bit sequence, Z denotes a maximum size of the code blocks, and L denotes a size of a cyclic redundancy check CRC to be attached to each of the code blocks; obtaining a size B' of a modified input bit sequence according to an equation B' = B + C * L; generating the code blocks based on the number C of the code blocks and the size B' of the modified input bit sequence; and transmitting the data using the code blocks.
A method of preparing a plurality of coated particles of a size that is between 1 nm and 50 μm, said coated particles having a solid core comprising a biologically active substance, said solid core being enclosed by an inorganic coating; the method comprising applying more than one layers of inorganic material comprising at least one metal or metalloid element to a plurality of said solid cores by an application method selected from atomic layer deposition, chemical vapour deposition or physical vapour deposition, wherein the inorganic material and/or precursors for forming the inorganic material is/are present in gas phase, and submitting said solid cores to intermittent agitation between application of layers of inorganic material. applying more than one layers of inorganic material comprising at least one metal or metalloid element to a plurality of said solid cores by an application method selected from atomic layer deposition, chemical vapour deposition or physical vapour deposition, wherein the inorganic material and/or precursors for forming the inorganic material is/are present in gas phase, and submitting said solid cores to intermittent agitation between application of layers of inorganic material.
A wind turbine rotor blade (5, 30, 40) comprising an outer skin material formed of fiber-reinforced plastic, main strength materials disposed on inner surfaces of a back side and a front side of the outer skin material, and crossbeam materials (15, 31, 41) disposed between the main strength materials, wherein the main strength material is formed by reinforced fiber sheets (21, 22, 23, 24) stacked one on top of another, the reinforced fiber sheets (21, 22, 23, 24) having constant widths in a longitudinal direction, and all reinforced fiber sheets (21, 22, 23; 24) having the same width, the wind turbine rotor blade (5, 30, 40) being characterized in that the stacked reinforced fiber sheets (21, 22, 23, 24) have all the same thickness, the number of stacked reinforced fiber sheets (21,22, 23, 24) constituting the main strength material is gradually reduced from a position where the number of the stacked reinforced fiber sheets is maximum toward a root side of the wind.turbine rotor blade, and from the said position where the number of the stacked reinforced fiber sheets is maximum toward a tip end side of the wind turbine rotor blade, and the number of stacked reinforced fiber sheets (21, 22, 23, 24) constituting the main strength material is selected in accordance with a strength required at a position in a longitudinal direction of the wind turbine rotor blade (5, 30, 40).
A system for creating a fistula between two vessels, comprising: a first catheter comprising a first magnetic element; and a second catheter comprising a second magnetic element; wherein at least one of the first and second catheters comprises a fistula-forming element, and wherein the first magnetic element is configured to produce a magnetic field that is stronger on a first side of the first magnetic element than on a second side of the first magnetic element, and further comprising a magnetic control device to be positioned externally to a body of a patient and for providing one or more magnetic forces to one or more of the catheters to be positioned in the body of a patient, comprising: a housing; a magnet, wherein the magnet is moveable relative to the housing and is configured to increase the attractive force between the two catheters (101, 103) to help bring the catheters toward each other; and a control element fixedly connected to the magnet and moveably connected to the housing, wherein movement of the control element moves the magnet relative to the housing. a first catheter comprising a first magnetic element; and a second catheter comprising a second magnetic element; wherein at least one of the first and second catheters comprises a fistula-forming element, and wherein the first magnetic element is configured to produce a magnetic field that is stronger on a first side of the first magnetic element than on a second side of the first magnetic element, and further comprising a magnetic control device to be positioned externally to a body of a patient and for providing one or more magnetic forces to one or more of the catheters to be positioned in the body of a patient, comprising: a housing; a magnet, wherein the magnet is moveable relative to the housing and is configured to increase the attractive force between the two catheters (101, 103) to help bring the catheters toward each other; and a control element fixedly connected to the magnet and moveably connected to the housing, wherein movement of the control element moves the magnet relative to the housing. a housing; a magnet, wherein the magnet is moveable relative to the housing and is configured to increase the attractive force between the two catheters (101, 103) to help bring the catheters toward each other; and a control element fixedly connected to the magnet and moveably connected to the housing, wherein movement of the control element moves the magnet relative to the housing.
A laser endoscope device (1, 1A) comprising: an imaging unit that includes an imaging head which is configured to be inserted into a living body and configured to apply laser light to the living body via the imaging head to image the living body, a control unit configured to control the imaging head in such a way that the imaging head moves in the living body; and an image processing unit configured to process an image captured by the imaging unit, wherein the imaging unit is configured to image a plurality of imaging regions (P, P1, P2, Pa) to be imaged, characterized in that the imaging unit is configured to image the plurality of imaging regions (P, P1, P2, Pa) when the control unit moves the imaging head such that the imaging head images the plurality of imaging regions (P, P1, P2, Pa) adjacent to and overlapping each other in such a way that adjacent imaging regions (P1, P2) partially have identical portions (Pa), and the image processing unit is configured to cause successive alignment of images in the plurality of imaging regions (P, P1, P2) adjacent to each other with the identical portions (Pa) being aligned to generate a merged image. an imaging unit that includes an imaging head which is configured to be inserted into a living body and configured to apply laser light to the living body via the imaging head to image the living body, a control unit configured to control the imaging head in such a way that the imaging head moves in the living body; and an image processing unit configured to process an image captured by the imaging unit, wherein the imaging unit is configured to image a plurality of imaging regions (P, P1, P2, Pa) to be imaged, characterized in that the imaging unit is configured to image the plurality of imaging regions (P, P1, P2, Pa) when the control unit moves the imaging head such that the imaging head images the plurality of imaging regions (P, P1, P2, Pa) adjacent to and overlapping each other in such a way that adjacent imaging regions (P1, P2) partially have identical portions (Pa), and the image processing unit is configured to cause successive alignment of images in the plurality of imaging regions (P, P1, P2) adjacent to each other with the identical portions (Pa) being aligned to generate a merged image.
A load bearing device for handling hoisting goods by means of a cranelike hoisting device, wherein the load bearing device comprises a receptacle for arranging the load bearing device on the hoisting device and multiple traction means for arranging the hoisting goods on the load bearing device, at least two rotatably mounted, lockable rotation bodies which guide the traction means, on which at least one traction means is fixed in each case, and the rotation bodies can be controlled by means of a drive in the same or the opposite direction.
A lubricant composition comprising: (a) an oil of lubricating viscosity having a kinematic viscosity at 100 °C of less than 15 mm 2 /s and (b) an esterified copolymer with a backbone comprising units derived from (i) an α-olefin monomer of at least 6 carbon atoms and (ii) an ethylenically unsaturated carboxylic acid or derivative thereof, wherein the mole ratio of (i) α-olefin monomer to (ii) carboxylic acid or derivative monomer is 1:3 to 3:1, said copolymer having a weight average molecular weight of 5,000 to 25,000 and optionally containing nitrogen functionality; and (c) an ethylene α-olefin copolymer comprising ethylene monomer units and one or more α-olefin monomer units other than ethylene monomer, wherein the amount of ethylene monomer units is greater than 5 weight percent, wherein the α-olefin monomer units contain 3 to 20, or 3 to 6, or 3 to 4, or 3 carbon atoms or mixtures thereof; wherein the polymers (b) and (c) are present in a weight ratio (b):(c) of 1:10 to 10:1, or 1:1 to 10:1, or 6:5 to 10:1, and wherein the total amount of polymer (b) plus (c) is 3 to 60 percent by weight of the lubricant composition. (a) an oil of lubricating viscosity having a kinematic viscosity at 100 °C of less than 15 mm 2 /s and (b) an esterified copolymer with a backbone comprising units derived from (i) an α-olefin monomer of at least 6 carbon atoms and (ii) an ethylenically unsaturated carboxylic acid or derivative thereof, wherein the mole ratio of (i) α-olefin monomer to (ii) carboxylic acid or derivative monomer is 1:3 to 3:1, said copolymer having a weight average molecular weight of 5,000 to 25,000 and optionally containing nitrogen functionality; and (c) an ethylene α-olefin copolymer comprising ethylene monomer units and one or more α-olefin monomer units other than ethylene monomer, wherein the amount of ethylene monomer units is greater than 5 weight percent, wherein the α-olefin monomer units contain 3 to 20, or 3 to 6, or 3 to 4, or 3 carbon atoms or mixtures thereof; wherein the polymers (b) and (c) are present in a weight ratio (b):(c) of 1:10 to 10:1, or 1:1 to 10:1, or 6:5 to 10:1, and wherein the total amount of polymer (b) plus (c) is 3 to 60 percent by weight of the lubricant composition.
A method for wireless communication by a network entity, comprising: identifying for reallocation a subset of resources originally allocated for transmissions in a frequency division duplex, FDD, mode of operation associated with a first base station; and reallocating the identified subset of resources for transmissions in a time division duplex, TDD, mode of operation associated with a second base station; wherein the identified subset of resources comprises a center portion of an FDD mode uplink, UL, bandwidth where there are no physical uplink shared channel, PUSCH, sounding reference signal, SRS, physical random access channel, PRACH, transmissions at the first base station; wherein the transmissions in the TDD mode of operation associated with the second base station are TDD mode downlink, DL, transmissions. identifying for reallocation a subset of resources originally allocated for transmissions in a frequency division duplex, FDD, mode of operation associated with a first base station; and reallocating the identified subset of resources for transmissions in a time division duplex, TDD, mode of operation associated with a second base station; wherein the identified subset of resources comprises a center portion of an FDD mode uplink, UL, bandwidth where there are no physical uplink shared channel, PUSCH, sounding reference signal, SRS, physical random access channel, PRACH, transmissions at the first base station; wherein the transmissions in the TDD mode of operation associated with the second base station are TDD mode downlink, DL, transmissions.
An insertion mechanism for a cannula (7, 8), comprising: a cannula housing relative to which the cannula (7, 8) can be displaced; at least one cannula holder (2.2, 3.2) on which the cannula (7, 8) is fastened and which is movable relative to the cannula housing; an insertion energy store for generating an insertion force on the at least one cannula holder (2.2, 3.2); a holding element (1.1) which can hold the at least one cannula holder (2.2, 3.2) relative to the cannula housing counter to the force generated by the insertion energy store; a heating element; and a fuse or a safety element which, in the safety state, holds the holding element (1.1) in a locked position and, in the released state, releases the holding element (1.1) so that the holding element (1.1) can be moved into the release position by the pressure of the insertion energy store and the at least one cannula holder (2.2, 3.2) can move relative to the cannula housing, driven by the insertion energy store, in order to trigger or carry out an insertion movement or insertion, characterized in that the fuse or the safety element or a part of the fuse is provided on the heating element and comprises a softenable or meltable material which is heated and softened by the heating element from one side and/or on one surface and/or is weakened in terms its mechanical supporting or holding capacity or severed or at least partially or completely melted. a cannula housing relative to which the cannula (7, 8) can be displaced; at least one cannula holder (2.2, 3.2) on which the cannula (7, 8) is fastened and which is movable relative to the cannula housing; an insertion energy store for generating an insertion force on the at least one cannula holder (2.2, 3.2); a holding element (1.1) which can hold the at least one cannula holder (2.2, 3.2) relative to the cannula housing counter to the force generated by the insertion energy store; a heating element; and a fuse or a safety element which, in the safety state, holds the holding element (1.1) in a locked position and, in the released state, releases the holding element (1.1) so that the holding element (1.1) can be moved into the release position by the pressure of the insertion energy store and the at least one cannula holder (2.2, 3.2) can move relative to the cannula housing, driven by the insertion energy store, in order to trigger or carry out an insertion movement or insertion, characterized in that the fuse or the safety element or a part of the fuse is provided on the heating element and comprises a softenable or meltable material which is heated and softened by the heating element from one side and/or on one surface and/or is weakened in terms its mechanical supporting or holding capacity or severed or at least partially or completely melted.
A packaged particulate detergent composition, wherein the composition comprises greater than 40 wt% detergent surfactant, at least 70 % by number of the particles comprising a core, comprising mainly surfactant, and around the core, a water soluble coating in an amount of from 10 to 45 wt% based on the coated particle, each coated particle having perpendicular dimensions x, y and z, wherein x is from 0.2 to 2 mm, y is from 2.5 to 8mm, and z is from 2.5 to 8 mm, the packaged particles being substantially the same shape and size as one another and the coated particles are oblate spheroids.
A construction machine having caterpillar tracks, arranged on an undercarriage, and having a boom, wherein the boom protrudes laterally in the travel direction of the construction machine, characterised in that the boom is provided with a movable boom arm and is secured to the undercarriage within the caterpillar tracks in order to receive loads and torques, wherein the boom is secured to the undercarriage with a boom securing plate for detachable securing and the boom is provided with a quick coupling plate at the distal end of the boom arm for holding attachments.
Exergy power plant system of physical overpressure energy E/m, which is usable in the form of a certain gas quantity (-44-) with temporal constancy in the system, as exergy portion, wherein the exergy power plant includes a hydraulic drive device (20, 21), hydraulic pressure rams, a gas space, a piston, upstream and downstream pressure lines (32, 33), at least one impeller casing, at least one impeller turbine with an impeller with cup-like or hemispherical blades arranged on the periphery thereof, and electric generators, wherein the pressure energy is operatively connected to the hydraulic drive device (20, 21), wherein the gas quantity (-44-) in the gas space is divided into two volume-variable gas spaces (16a, 16b) by the piston moved by means of displacement of the hydraulic pressure ram, wherein the gas quantity (-44-) is moved in a reversible way by pressure compensation in the system, wherein the overpressure energy, conducted through the upstream and downstream pressure lines (32, 33), flows alternately through the at least one impeller housing and acts on the at least one impeller turbine in an upstream or downstream manner, as a result of which the overpressure energy performs specific technical work which, supplied to an impeller shaft, is converted into shaft work, coupled to the electrical generators, generates electricity which is then supplied for technical use. wherein the exergy power plant includes a hydraulic drive device (20, 21), hydraulic pressure rams, a gas space, a piston, upstream and downstream pressure lines (32, 33), at least one impeller casing, at least one impeller turbine with an impeller with cup-like or hemispherical blades arranged on the periphery thereof, and electric generators, wherein the pressure energy is operatively connected to the hydraulic drive device (20, 21), wherein the gas quantity (-44-) in the gas space is divided into two volume-variable gas spaces (16a, 16b) by the piston moved by means of displacement of the hydraulic pressure ram, wherein the gas quantity (-44-) is moved in a reversible way by pressure compensation in the system, wherein the overpressure energy, conducted through the upstream and downstream pressure lines (32, 33), flows alternately through the at least one impeller housing and acts on the at least one impeller turbine in an upstream or downstream manner, as a result of which the overpressure energy performs specific technical work which, supplied to an impeller shaft, is converted into shaft work, coupled to the electrical generators, generates electricity which is then supplied for technical use.
A folding apparatus of a printing press, in particular of a rotary printing press, comprising a first longitudinal folding unit or a magazine structure, comprising a cutting unit arranged downstream from the first longitudinal folding unit or from the magazine structure, viewed in transport direction of a printing material, so as to sever copies from the printing material by means of cross cutting, and comprising a cross folding unit and/or second longitudinal folding unit arranged downstream from the cutting unit, viewed in transport direction, wherein the cutting unit has at least one cutting blade cylinder and a groove cylinder, which cooperates with the cutting blade cylinder, wherein, to ensure a format variability, the cutting blade cylinder and the groove cylinder of the cutting unit can be driven in such a manner that the circumferential speeds of cutting blade cylinder and groove cylinder correspond approximately to the speed of the printing material during the cutting process, and in that the cutting blade cylinder and groove cylinder can be accelerated and decelerated prior to and after the cutting process, characterized in that the cutting blade cylinder and the groove cylinder can be driven in such a manner that the circumferential speed of at least the cutting blade cylinder can be varied in such a manner during the cutting process that the circumferential speed of a tip of the cutting blade corresponds to the speed of the printing material when the cutting blade cylinder enters and/or exits into and/or out of the printing material.
Speed reducer with two intermediate lines (17, 18) for a turboprop engine, said reducer comprising: - an input line comprising an input shaft (a 1) bearing an input gear wheel, - a first intermediate line comprising a first intermediate shaft (a 2) bearing a first intermediate gear wheel, - a second intermediate line comprising a second intermediate shaft (a 3) bearing a second intermediate gear wheel, - a spring held by a frame, - the input gear wheel is meshed with the first intermediate gear wheel and the second intermediate gear wheel, characterised in that the spring surrounds a longitudinal portion of the input shaft (a 1) in order to allow a movement of this input shaft (a 1) and then the input gear wheel towards an equilibrium position corresponding to an equal distribution of the transmission of the power coming from the input shaft (a 1) to the first intermediate shaft (a 2) of the first intermediate line and the second intermediate shaft (a 3) of the second intermediate line and that the movement of the input shaft (a 1) is along an axis substantially perpendicular to an axis of rotation (x 1) of the input shaft (a 1) - an input line comprising an input shaft (a 1) bearing an input gear wheel, - a first intermediate line comprising a first intermediate shaft (a 2) bearing a first intermediate gear wheel, - a second intermediate line comprising a second intermediate shaft (a 3) bearing a second intermediate gear wheel, - a spring held by a frame, - the input gear wheel is meshed with the first intermediate gear wheel and the second intermediate gear wheel,
A tow bar for a vehicle, said tow bar comprising a towing hook receiving portion adapted to detachably or fixedly connect a towing hook, a first and a second vehicle connection site (14, 15) arranged on either side of said towing hook receiving portion and adapted to be connected to said vehicle, said tow bar having a tube section between said first and said second vehicle connection site (14, 15), said tube section comprising a polygonal cross section having a plurality of corners (25, 26, 27, 28), at least one reinforcing element (20, 20') is arranged inside of said tube section and arranged to fix the position of at least some of said plurality of corners (25, 26, 27, 28) of said polygonal cross section with respect to each other, wherein said tube section of said tow bar comprises at least one aperture (21, 22, 23, 24) and wherein said at least one reinforcing element (20, 20') has been inserted through said aperture (21, 22, 23, 24), said at least one aperture (21, 22, 23, 24) not being an open end of said tube section, characterized in that said at least one reinforcing element (20, 20') is arranged closer to said towing hook receiving portion than to a first and a second end (19a, 19b) of said tube section.