mhurhangee/ep-ind-claims huggingface dataset:
A self-drilling rock bolt for drilling a drill hole in a material to be drilled using a percussive rock drill and reinforcing the material surrounding the drill hole, the rock bolt comprising drilling means for drilling a drill hole in a material to be drilled at a drilling end of the rock bolt, and a rock bolt body for bolting the drill hole, and an end anchor element provided at the drilling end of the rock bolt provided with anchor means for engaging with the material of the drill hole walls, characterized in that the rock bolt further comprises an impact absorber arranged between the rock bolt body and the end anchor element to dampen the impact from percussive drilling, wherein the impact absorber is formed of a material that is less hard than the rock bolt body and/or end anchor element. drilling means for drilling a drill hole in a material to be drilled at a drilling end of the rock bolt, and a rock bolt body for bolting the drill hole, and an end anchor element provided at the drilling end of the rock bolt provided with anchor means for engaging with the material of the drill hole walls, characterized in that the rock bolt further comprises an impact absorber arranged between the rock bolt body and the end anchor element to dampen the impact from percussive drilling, wherein the impact absorber is formed of a material that is less hard than the rock bolt body and/or end anchor element.
A method of optimizing a radiation treatment plan of ion treatment, comprising the following steps, performed in a computer; a) Running an optimization in order to distribute a desired dose over a predefined set of spots, wherein said optimization involves assigning a spot weight to each of the predefined spots, depending on the desired dose delivered from that spot, b) Interrupting the optimization, c) Identifying at least a first and a second low-weight spot, said low-weight spots having spot weights below a first threshold, d) Discarding the second identified low-weight spot from the set of spots while keeping the first identified low-weight spot in the set of spots, to obtain a reduced set of spots, e) Running the optimization to obtain a radiation treatment plan in which the desired dose is delivered by the reduced set of spots. a) Running an optimization in order to distribute a desired dose over a predefined set of spots, wherein said optimization involves assigning a spot weight to each of the predefined spots, depending on the desired dose delivered from that spot, b) Interrupting the optimization, c) Identifying at least a first and a second low-weight spot, said low-weight spots having spot weights below a first threshold, d) Discarding the second identified low-weight spot from the set of spots while keeping the first identified low-weight spot in the set of spots, to obtain a reduced set of spots, e) Running the optimization to obtain a radiation treatment plan in which the desired dose is delivered by the reduced set of spots.
A method for conveying data across a plurality of domains of at least one network (N1 - N5) with a plurality of domains, or across a plurality of networks (N1 - N5), the method comprising: - allocating at least one transmission resource for an end-to-end connection between a source and a destination, such that the end-to-end connection between the source and the destination is defined by allocating the at least one transmission resource; and - conveying the data across the plurality of domains or the plurality of networks via the end-to-end connection. - N5) with a plurality of domains, or across a plurality of networks (N1 - N5), the method comprising: - allocating at least one transmission resource for an end-to-end connection between a source and a destination, such that the end-to-end connection between the source and the destination is defined by allocating the at least one transmission resource; and - conveying the data across the plurality of domains or the plurality of networks via the end-to-end connection.
Hydrogen discharge system for a truck, this system comprising: - a pipe provided with at least one discharge opening, - a deflector, that is rotatably mounted with respect to the pipe and that includes a vent, for venting hydrogen exiting through the discharge opening, characterized in that the system further includes a balancing weight secured to the deflector, so as to maintain the deflector in a configuration wherein the vent is facing upwards with respect to the ground, in order to always discharge hydrogen upwards relative to the ground. - a pipe provided with at least one discharge opening, - a deflector, that is rotatably mounted with respect to the pipe and that includes a vent, for venting hydrogen exiting through the discharge opening,
A regulating valve for working hydraulics of a working machine for use in agriculture or construction, configured as a closed centre system, which amplifies a load pressure signal (p LS) in a load signal line from one or more control devices (8, 9, 29, 30) by means of an increase in pressure from a pressure line, wherein the regulating valve has a load signal amplification valve unit which is configured as a directional regulating valve, wherein this has usable connections for the pressure line, for a first line section of the load signal line leading to an adjustment device of a variable displacement pump as well as for a return line and is controlled on one side via the load pressure (p LS38) of the first line section, and wherein the regulating valve has a preloading stage which engages on the end side via a preloading spring on a valve slide of the directional regulating valve and which is loaded with a load pressure (p LS48) of a second line section of the load signal line and controls the other side of the load signal amplification valve unit, wherein a piston of the regulating valve which is loaded with the load pressure (p LS48) of the second line section engages on the valve slide, characterized in that an actuating force is directly transmitted via a spring plate of the regulating valve onto the valve slide via the piston which is loaded by the load pressure (p LS48) of the second line section and a plunger rod extending therefrom, in that an end of the preloading spring abuts the spring plate which bears on an end face of the valve slide with an end side facing away from the preloading spring, and in that the plunger rod, which is surrounded by the preloading spring, extends from an end side of the piston facing the valve slide.
A tire (1, 51) including a land (20, 70) formed on a tread portion (2, 52), wherein a ground contact surface (30, 90) of the land (20, 70) is formed in a convex shape in which a plurality of curved portions (31 to 33, 91 to 93) each having a predetermined curvature (Rc, Re, Rm) is smoothly connected at least on a section of the land (20, 70) in a tire width direction, Rc < Re holds when a curvature of a center curved portion (31, 91) including a center part (35, 95) of the ground contact surface (30, 90) is Rc and a curvature of an end curved portion (32, 92) including an end portion (34, 94) of the ground contact surface (30, 90) is Re, a curvature (Rm) of a curved portion (33, 93) located between the center curved portion (31, 91) and the end curved portion (32, 92) is within a range of Rc to Re, the curvature Rc of the center curved portion (31, 91) is within a range of 2.5 to 5 (1/m), and Re/Rc is within a range of 15 to 60.
A composition comprising an inhibitor of orexin activity, for use in lowering intraocular pressure, for maintaining intraocular pressure at target treatment levels or for lowering intraocular pressure fluctuations, wherein the orexin inhibitor is 1-(2-methylbenzoxazol-6-yl)-3-[1,5]naphthyridin- 4-yl urea.
A rotorcraft swashplate assembly comprising: a rotationally fixed swashplate configured to be fixed against rotating with a rotorcraft rotor configured to rotate about a rotational axis; a rotatable swashplate configured to reside between rotor blades of the rotor and the rotationally fixed swashplate, and configured to be coupled to the rotor to rotate with the rotor; a plurality of pitch change links, each pitch change link configured to be coupled to a respective rotor blade, to the rotorcraft rotor, and to the rotatable swashplate to rotate with the rotor; and an annular track coupled to the rotationally fixed swashplate and configured to support each pitch change link riding on the annular track as each pitch change link rotates with the rotor, characterized in that the annular track comprises: a plurality of bearings each comprising a surface upon which a pitch change link rides, and a plurality of actuators coupled to the rotationally fixed swashplate and to the plurality of bearings to move at least some of the bearings independently from other bearings, changing a shape of the annular track and thereby the pitch of each rotor blade connected to a respective pitch change link as each pitch change link rides on the annular track during rotation of the rotor blades. a rotationally fixed swashplate configured to be fixed against rotating with a rotorcraft rotor configured to rotate about a rotational axis; a rotatable swashplate configured to reside between rotor blades of the rotor and the rotationally fixed swashplate, and configured to be coupled to the rotor to rotate with the rotor; a plurality of pitch change links, each pitch change link configured to be coupled to a respective rotor blade, to the rotorcraft rotor, and to the rotatable swashplate to rotate with the rotor; and an annular track coupled to the rotationally fixed swashplate and configured to support each pitch change link riding on the annular track as each pitch change link rotates with the rotor, characterized in that the annular track comprises: a plurality of bearings each comprising a surface upon which a pitch change link rides, and a plurality of actuators coupled to the rotationally fixed swashplate and to the plurality of bearings to move at least some of the bearings independently from other bearings, changing a shape of the annular track and thereby the pitch of each rotor blade connected to a respective pitch change link as each pitch change link rides on the annular track during rotation of the rotor blades. a plurality of bearings each comprising a surface upon which a pitch change link rides, and a plurality of actuators coupled to the rotationally fixed swashplate and to the plurality of bearings to move at least some of the bearings independently from other bearings, changing a shape of the annular track and thereby the pitch of each rotor blade connected to a respective pitch change link as each pitch change link rides on the annular track during rotation of the rotor blades.
A sheet-fed printing press (1000; 1000*) adapted to carry out recto-verso printing of individual sheets, comprising one or more printing units (200; 200.1, 200.2; 200.1*, 200.2*) each adapted to carry out simultaneous recto-verso printing of the sheets, each printing unit (200; 200.1, 200.2; 200.1*, 200.2*) including two printing cylinders (105, 106) cooperating with one another and forming a printing nip where both sides of the sheets are simultaneously printed, a first printing cylinder of the two printing cylinders (105, 106) collecting ink patterns from at least two plate cylinders (15A, 15B) associated with the first printing cylinder and a second printing cylinder of the two printing cylinders (105, 106) collecting ink patterns from at least two plate cylinders (16A, 16B) associated with the second printing cylinder and wherein the two printing cylinders (105, 106) are located one above the other such that the sheets travel laterally through each printing unit (200; 200.1, 200.2; 200.1*, 200.2*) from a first lateral side (201a; 201a*) located upstream of the printing nip to a second lateral side (201b; 201b*) opposite to the first lateral side (201a; 201a*) and located downstream of the printing nip, characterized in that the sheet-fed printing press (1000; 1000*) is comprising at least two of said printing units (200.1, 200.2; 200.1*, 200.2*) that are located one after the other, wherein a number of at least two sheet transfer elements (110, 120, 95) is provided downstream of the printing nip of a first one (200.1; 200.1*) of the at least two printing units (200.1, 200.2; 200.1*, 200.2*) and upstream of the printing nip of a second one (200.2; 200.2*) of the at least two printing units (200.1, 200.2; 200.1*, 200.2*) to transfer the sheets from the first printing unit (200.1; 200.1*) to the second printing unit (200.2; 200.2*) and in that the plate cylinders (15A, 15B, 16A, 16B) are each inked by an associated inking apparatus (25A, 25B, 26A, 26B), and in that for each ink fountain, there is defined at least one reference plane, that intersects with that respective ink fountain and that contains the rotational axis of the plate cylinder (15A, 15B, 16A, 16B) associated with that respective ink fountain each inking apparatus being characterized in that the at least one respective reference plane contains at least one straight reference line, and in that this at least one straight reference line is oriented perpendicularly to the rotational axis of the plate cylinder (15A, 15B, 16A, 16B) associated with that respective ink fountain and in that this at least one straight reference line together with a vertical straight line confines an angle that is smaller than 35°.
An apparatus of a base station, BS, comprising interface circuitry and hardware processing circuitry, the hardware processing circuitry to configure the interface circuitry to cause the BS, to: receive, from a Private Spectrum Access System, SAS, controller, a first configuration message that allocates, to the BS, a first channel included in shared spectrum reserved for primary usage by an incumbent device, the first configuration message indicating a first transmit power to be used, by the BS, for transmissions on the first channel; receive, from the Private SAS controller, a request that the BS determine a system performance measurement; send, to the Private SAS controller, the system performance measurement based on a communication between the BS and a User Equipment, UE; and receive, from the Private SAS controller, a second configuration message that includes a spectrum usage indicator for usage of the first channel by the BS, wherein when the spectrum usage indicator indicates that the BS is to refrain from usage of the first channel, the second configuration message allocates, to the BS, a second channel included in the shared spectrum and further indicates a second transmit power to be used, by the BS, for transmissions on the second channel. receive, from a Private Spectrum Access System, SAS, controller, a first configuration message that allocates, to the BS, a first channel included in shared spectrum reserved for primary usage by an incumbent device, the first configuration message indicating a first transmit power to be used, by the BS, for transmissions on the first channel; receive, from the Private SAS controller, a request that the BS determine a system performance measurement; send, to the Private SAS controller, the system performance measurement based on a communication between the BS and a User Equipment, UE; and receive, from the Private SAS controller, a second configuration message that includes a spectrum usage indicator for usage of the first channel by the BS, wherein when the spectrum usage indicator indicates that the BS is to refrain from usage of the first channel, the second configuration message allocates, to the BS, a second channel included in the shared spectrum and further indicates a second transmit power to be used, by the BS, for transmissions on the second channel.
A method of detecting or quantitating at least two different target nucleic acids in separate vials, comprising a) amplifying said at least two target nucleic acids, wherein said first target nucleic acid is amplified in a first vial without amplifying said second target nucleic acid, and said second target nucleic acid is amplified in a second vial without amplifying said first target nucleic acid b) in parallel with step a), amplifying a first positive control nucleic acid in a third vial, wherein said first positive control nucleic acid is a positive control for said first target nucleic acid, and amplifying a second positive control nucleic acid in a fourth vial, wherein said second positive control nucleic acid is a positive control for said second target nucleic acid; wherein said first positive control nucleic acid and said second positive control nucleic acid are provided to the third vial and the fourth vial from a positive control vial comprising a single positive control stock solution comprising a mixture of said first positive control nucleic acid and said second positive control nucleic acid before amplification, characterized in that said positive control vial is provided in a rack into an automated analyzer, and wherein said negative control vial is provided in a second rack different from the rack comprising the positive control vial, wherein in said rack comprising the positive control vial, a negative control vial is absent, and wherein said negative controls are run at a higher frequency than said positive controls, wherein said method is performed in an automated analyzer. a) amplifying said at least two target nucleic acids, wherein said first target nucleic acid is amplified in a first vial without amplifying said second target nucleic acid, and said second target nucleic acid is amplified in a second vial without amplifying said first target nucleic acid b) in parallel with step a), amplifying a first positive control nucleic acid in a third vial, wherein said first positive control nucleic acid is a positive control for said first target nucleic acid, and amplifying a second positive control nucleic acid in a fourth vial, wherein said second positive control nucleic acid is a positive control for said second target nucleic acid; wherein said first positive control nucleic acid and said second positive control nucleic acid are provided to the third vial and the fourth vial from a positive control vial comprising a single positive control stock solution comprising a mixture of said first positive control nucleic acid and said second positive control nucleic acid before amplification,
A method for detecting discrepancies in an item (100; 410) such as an aircraft, automobile, ship, submarine, satellite, spacecraft, building, bridge or pipeline using one-dimensional imaging, the method comprising: taking a plurality of readings along a first direction of the item, and characterized in that taking each reading comprises: directing an X-ray fan beam at the item, wherein a portion of the X-ray fan beam is reflected back from the item and wherein the narrow beam-width of the X-ray fan beam is parallel to the first direction; and detecting reflected X-rays from the item and recording the intensity of the detected reflected X-rays; and wherein the method further comprises: forming a one-dimensional image of the item from the detected reflected X-rays, the one-dimensional image establishing a correspondence between points along the first direction of the item and the intensity of the detected reflected X-rays at each point. taking a plurality of readings along a first direction of the item, and characterized in that taking each reading comprises: directing an X-ray fan beam at the item, wherein a portion of the X-ray fan beam is reflected back from the item and wherein the narrow beam-width of the X-ray fan beam is parallel to the first direction; and detecting reflected X-rays from the item and recording the intensity of the detected reflected X-rays; directing an X-ray fan beam at the item, wherein a portion of the X-ray fan beam is reflected back from the item and wherein the narrow beam-width of the X-ray fan beam is parallel to the first direction; and detecting reflected X-rays from the item and recording the intensity of the detected reflected X-rays; and wherein the method further comprises: forming a one-dimensional image of the item from the detected reflected X-rays, the one-dimensional image establishing a correspondence between points along the first direction of the item and the intensity of the detected reflected X-rays at each point.
A method of manufacturing a turf infill for an artificial turf, wherein the method comprises mixing natural fiber and rubber granulate to provide artificial turf infill, wherein the artificial turf infill comprises between 10% and 40% of the natural fiber by weight, wherein the natural fiber comprises any one of the following: hemp fiber, cotton fiber, burlap fiber, sisal fiber, elephant grass fiber, cellulose fiber, and combinations thereof, wherein the method further comprises: - providing an initial composition comprising the natural fiber and the rubber granulate, and a fluid binding agent comprising at least one type of polymer component; - mixing the initial composition, - adding water and a catalyst to the initial composition during the mixing of the initial composition to cure the fluid binding agent into an initial coating of the granulate; - providing a subsequent composition comprising the natural fiber and the rubber granulate with the initial coating, and the fluid binding agent; - mixing the subsequent composition; and - adding water and the catalyst to the subsequent composition during the mixing of the subsequent composition to cure the fluid binding agent into a subsequent coating of the granulate. - providing an initial composition comprising the natural fiber and the rubber granulate, and a fluid binding agent comprising at least one type of polymer component; - mixing the initial composition, - adding water and a catalyst to the initial composition during the mixing of the initial composition to cure the fluid binding agent into an initial coating of the granulate; - providing a subsequent composition comprising the natural fiber and the rubber granulate with the initial coating, and the fluid binding agent; - mixing the subsequent composition; and - adding water and the catalyst to the subsequent composition during the mixing of the subsequent composition to cure the fluid binding agent into a subsequent coating of the granulate.
A positive electrode material, comprising: an electroactive material having an overall composition comprising Li, Fe, Mn, one or more dopants, and PO 4, wherein the amount of Fe+Mn+D=1.0; the ratio of the amount of Li: (Fe+Mn+D) ranges from greater than 1.0 to 1.05; the ratio of the amount of PO 4: (Fe+Mn+D) ranges from greater than 1.0 to 1.025; D is one or more dopants selected from the group consisting of Co, Ni, V, Nb and mixtures thereof; the amount of Mn ranges from 0.35 to 0.60; the amount of D ranges from 0.001 to 0.10; and the electroactive material comprises at least one phase having an olivine structure comprising at least some of said Li, Fe, Mn, D, and phosphate. an electroactive material having an overall composition comprising Li, Fe, Mn, one or more dopants, and PO 4, wherein the amount of Fe+Mn+D=1.0; the ratio of the amount of Li: (Fe+Mn+D) ranges from greater than 1.0 to 1.05; the ratio of the amount of PO 4: (Fe+Mn+D) ranges from greater than 1.0 to 1.025; D is one or more dopants selected from the group consisting of Co, Ni, V, Nb and mixtures thereof; the amount of Mn ranges from 0.35 to 0.60; the amount of D ranges from 0.001 to 0.10; and the electroactive material comprises at least one phase having an olivine structure comprising at least some of said Li, Fe, Mn, D, and phosphate.