mhurhangee/ep-ind-claims huggingface dataset:
Aircraft undercarriage intended to be mounted on the aircraft so that it can be moved between a deployed position and a retracted position, the undercarriage including a roller for hooking up the undercarriage in the retracted position, the roller being carried by a support which is secured to the undercarriage and movable relative thereto, characterized in that the support is pivotably mounted on the undercarriage.
An anchor assembly for anchoring tissue to bone, comprising: a sheath (200, 200', 200") having a first sidewall (202, 202") with proximal and distal ends (200p, 200d) and a second sidewall (204, 204") with proximal and distal ends (200p, 200d), the distal ends of the first and second sidewalls being coupled to one another by a hinge pin such that the first and second sidewalls pivot relative to one another about the hinge pin; and an expander having a generally elongate cylindrical configuration and configured to be received between the first and second sidewalls of the sheath to cause the first and second sidewalls to pivot about the hinge pin and move laterally away from one another; wherein the proximal end of each of the first and second sidewalls includes a boss formed thereon and configured to engage threads on the expander to maintain alignment between the sheath and the expander; and wherein the boss on each sidewall extends toward the other one of the first and second sidewalls such that the proximal ends of the first and second sidewalls substantially circumferentially surround the expander. a sheath (200, 200', 200") having a first sidewall (202, 202") with proximal and distal ends (200p, 200d) and a second sidewall (204, 204") with proximal and distal ends (200p, 200d), the distal ends of the first and second sidewalls being coupled to one another by a hinge pin such that the first and second sidewalls pivot relative to one another about the hinge pin; and an expander having a generally elongate cylindrical configuration and configured to be received between the first and second sidewalls of the sheath to cause the first and second sidewalls to pivot about the hinge pin and move laterally away from one another; wherein the proximal end of each of the first and second sidewalls includes a boss formed thereon and configured to engage threads on the expander to maintain alignment between the sheath and the expander; and wherein the boss on each sidewall extends toward the other one of the first and second sidewalls such that the proximal ends of the first and second sidewalls substantially circumferentially surround the expander.
Line section for temperature-controlled guiding of a reductant for the exhaust gas post-treatment of an internal combustion engine, comprising a first line for guiding the reductant, a second line for guiding a temperature control agent, and a casing surrounding the two lines (2, 3), wherein the two lines (2, 3) are disposed adjacent to each other in the casing and guided in a coupling housing, and the casing is connected to the coupling housing, characterized in that both lines (2, 3) are guided through the entire coupling housing extending adjacent to each other.
A rubber composition for tire treads, containing a rubber component and a plasticizer, wherein the rubber component contains 40 to 65% by mass of a styrene-butadiene rubber and 35 to 60% by mass of a butadiene rubber, the plasticizer contains an aromatic vinyl polymer having a glass transition temperature equal to or higher than 20°C, and an amount of the aromatic vinyl polymer relative to an amount of the styrene-butadiene rubber (amount of aromatic vinyl polymer/amount of styrene-butadiene rubber) is 0.3 to 0.75.
A method on a mobile computing device for locating electromagnetic signals radiating from a buried asset, the method comprising: receiving a first data structure that represents a two dimensional area comprising a buffer zone at an above-surface location, wherein the buffer zone corresponds to a particular buried asset sought by an operator of the mobile computing device; iteratively executing the following four steps: a) calculating an above-surface location of the mobile computing device; b) determining whether the above-surface location of the mobile computing device is located within the two dimensional area represented by the first data structure; c) if the above-surface location is not located within the two dimensional area, determining whether an electromagnetic locating function of a component communicatively coupled with the mobile computing device is enabled, and if so, disabling the electromagnetic locating function of the component; and d) if the above-surface location is located within the two dimensional area, determining whether the electromagnetic locating function of the component is disabled, and if so, enabling the electromagnetic locating function of the component. receiving a first data structure that represents a two dimensional area comprising a buffer zone at an above-surface location, wherein the buffer zone corresponds to a particular buried asset sought by an operator of the mobile computing device; iteratively executing the following four steps: a) calculating an above-surface location of the mobile computing device; b) determining whether the above-surface location of the mobile computing device is located within the two dimensional area represented by the first data structure; c) if the above-surface location is not located within the two dimensional area, determining whether an electromagnetic locating function of a component communicatively coupled with the mobile computing device is enabled, and if so, disabling the electromagnetic locating function of the component; and d) if the above-surface location is located within the two dimensional area, determining whether the electromagnetic locating function of the component is disabled, and if so, enabling the electromagnetic locating function of the component. a) calculating an above-surface location of the mobile computing device; b) determining whether the above-surface location of the mobile computing device is located within the two dimensional area represented by the first data structure; c) if the above-surface location is not located within the two dimensional area, determining whether an electromagnetic locating function of a component communicatively coupled with the mobile computing device is enabled, and if so, disabling the electromagnetic locating function of the component; and d) if the above-surface location is located within the two dimensional area, determining whether the electromagnetic locating function of the component is disabled, and if so, enabling the electromagnetic locating function of the component.
Photo-crosslinked derivatives of hyaluronic acid consisting of HA, a polyethylene glycol bifunctional spacer which is triethylene glycol, and a photoreactive compound selected from coumarin derivatives.
A plug for use in cold drawing of a metal pipe, comprising: a first columnar portion having an outside diameter D1; a second columnar portion formed coaxially with the first columnar portion and having an outside diameter D2 larger than the outside diameter D1; and a tapered portion formed between the first columnar portion and the second columnar portion and having a tapered surface provided with an outside diameter gradually increasing from the first columnar portion to the second columnar portion and an axial direction length L, the outside diameters D1 and D2, and the axial direction length L meeting the following expressions to: 0.25 ≤ ρ ≤ 2.00 0.06 ≤ L / D ⁢ 2 ≤ 0.8 L / D ⁢ 2 ≤ 0.3 × ρ + 0.575 and L / D ⁢ 2 ≥ 0.1 × ρ where ρ = (D2 - D1)/D1 × 100. a first columnar portion having an outside diameter D1; a second columnar portion formed coaxially with the first columnar portion and having an outside diameter D2 larger than the outside diameter D1; and a tapered portion formed between the first columnar portion and the second columnar portion and having a tapered surface provided with an outside diameter gradually increasing from the first columnar portion to the second columnar portion and an axial direction length L, the outside diameters D1 and D2, and the axial direction length L meeting the following expressions to: 0.25 ≤ ρ ≤ 2.00 0.06 ≤ L / D ⁢ 2 ≤ 0.8 L / D ⁢ 2 ≤ 0.3 × ρ + 0.575 and L / D ⁢ 2 ≥ 0.1 × ρ where ρ = (D2 - D1)/D1 × 100.
A fiber coupling device (1001, 1002) comprising: a housing; and a window (30, 50) provided in the housing, wherein the fiber coupling device (1001, 1002) is configured to collectively guide a plurality of laser beams to at least a first fiber, the plurality of laser beams each being emitted from a corresponding one of a plurality of external laser light sources (11, 12) and entering through a laser beam inlet, wherein the housing is configured such that the plurality of laser beams enter the housing from the laser beam inlet, wherein the window (30, 50) is provided inside the housing and faces the laser beam inlet, wherein each of the plurality of external laser light sources (11, 12) cause a corresponding one of the plurality of laser beams to enter from the laser beam inlet and travel in an incident direction, wherein the window (30, 50) is located in the incident direction from the laser beam inlet, and wherein the fiber coupling device (1001, 1002) further comprises a first mirror that switches selectively between a first beam path through which the plurality of laser beams are guided to the first fiber and a second beam path through which the plurality of laser beams are guided to the window (30, 50). a housing; and a window (30, 50) provided in the housing, wherein the fiber coupling device (1001, 1002) is configured to collectively guide a plurality of laser beams to at least a first fiber, the plurality of laser beams each being emitted from a corresponding one of a plurality of external laser light sources (11, 12) and entering through a laser beam inlet, wherein the housing is configured such that the plurality of laser beams enter the housing from the laser beam inlet, wherein the window (30, 50) is provided inside the housing and faces the laser beam inlet, wherein each of the plurality of external laser light sources (11, 12) cause a corresponding one of the plurality of laser beams to enter from the laser beam inlet and travel in an incident direction, wherein the window (30, 50) is located in the incident direction from the laser beam inlet, and wherein the fiber coupling device (1001, 1002) further comprises a first mirror that switches selectively between a first beam path through which the plurality of laser beams are guided to the first fiber and a second beam path through which the plurality of laser beams are guided to the window (30, 50). the window (30, 50) is provided inside the housing and faces the laser beam inlet, wherein each of the plurality of external laser light sources (11, 12) cause a corresponding one of the plurality of laser beams to enter from the laser beam inlet and travel in an incident direction, wherein the window (30, 50) is located in the incident direction from the laser beam inlet, and wherein the fiber coupling device (1001, 1002) further comprises a first mirror that switches selectively between a first beam path through which the plurality of laser beams are guided to the first fiber and a second beam path through which the plurality of laser beams are guided to the window (30, 50).
An electronic device comprising: first communication circuitry configured to perform short-range wireless communication; second communication circuitry configured to perform ultra-wideband, UWB, communication; and a processor configured to: receive a signal via the short-range wireless communication; activate the second communication circuitry based on the signal; perform, using the second communication circuitry, a ranging operation with an external electronic device for identifying if the electronic device and the external electronic device are within a defined distance from each other, and while the electronic device and the external electronic device are within the defined distance from each other, transmit, using the second communication circuitry to the external electronic device, a first UWB signal including a medium access control, MAC, header and a MAC payload, the MAC payload including an UWB secure service identifier, USSID. first communication circuitry configured to perform short-range wireless communication; second communication circuitry configured to perform ultra-wideband, UWB, communication; and a processor configured to: receive a signal via the short-range wireless communication; activate the second communication circuitry based on the signal; perform, using the second communication circuitry, a ranging operation with an external electronic device for identifying if the electronic device and the external electronic device are within a defined distance from each other, and while the electronic device and the external electronic device are within the defined distance from each other, transmit, using the second communication circuitry to the external electronic device, a first UWB signal including a medium access control, MAC, header and a MAC payload, the MAC payload including an UWB secure service identifier, USSID. receive a signal via the short-range wireless communication; activate the second communication circuitry based on the signal; perform, using the second communication circuitry, a ranging operation with an external electronic device for identifying if the electronic device and the external electronic device are within a defined distance from each other, and while the electronic device and the external electronic device are within the defined distance from each other, transmit, using the second communication circuitry to the external electronic device, a first UWB signal including a medium access control, MAC, header and a MAC payload, the MAC payload including an UWB secure service identifier, USSID.
A method of coating beads with a biological molecule comprising: (i) coating a plurality of beads with the biological molecule; (ii) mixing the coated beads with a liquid stabilising and/or blocking agent (iii) dispersing the coated beads still surrounded by a liquid phase comprising the liquid stabilising and/or blocking agent across a surface that is at least partially liquid permeable; (iv) drying the beads on the surface to remove the liquid phase to form free flowing beads; and (v) removing the dried beads from the surface; preferably wherein the biological molecule is an antibody or fragment thereof capable of specifically binding an antigen, or an antibody. (i) coating a plurality of beads with the biological molecule; (ii) mixing the coated beads with a liquid stabilising and/or blocking agent (iii) dispersing the coated beads still surrounded by a liquid phase comprising the liquid stabilising and/or blocking agent across a surface that is at least partially liquid permeable; (iv) drying the beads on the surface to remove the liquid phase to form free flowing beads; and (v) removing the dried beads from the surface;
A low-temperature sintering ceramic material comprising a main constituent ceramic material containing 48 to 75 weight% in terms of SiO 2 of Si, 20 to 40 weight% in terms of BaO of Ba, and 5 to 20 weight% in terms of Al 2 O 3 of Al, and an accessory constituent ceramic material containing, relative to 100 parts by weight of the main constituent ceramic material, 2 to 10 parts by weight in terms of MnO of Mn and 0.1 to 10 parts by weight in terms of TiO 2 and Fe 2 O 3 of at least one selected from Ti and Fe, whereby the total amount of TiO 2 and Fe 2 O 3 is 0.1 to 10 parts by weight, and not comprising both Cr oxide and B oxide or comprising less than 0.1 weight% of Cr oxide and B oxide, and further comprising, as said accessory constituent ceramic material, 0.1 to 5 parts by weight in terms of MgO of Mg, relative to 100 parts by weight of said main constituent ceramic material.
Method for producing a building panel, comprising - forming a mix comprising wood particles, a solvent, a binder and at least one additive, wherein the binder and said at least one additive are homogenously distributed in the mix by means of the solvent and wherein the binder impregnates the wood particles, - drying the mix, - applying the mix on a substrate (3, 6; 8; 11), wherein the substrate is a core of the building panel, and - forming a surface layer or an overlay by applying heat and pressure to the mix. - forming a mix comprising wood particles, a solvent, a binder and at least one additive, wherein the binder and said at least one additive are homogenously distributed in the mix by means of the solvent and wherein the binder impregnates the wood particles, - drying the mix, - applying the mix on a substrate (3, 6; 8; 11), wherein the substrate is a core of the building panel, and - forming a surface layer or an overlay by applying heat and pressure to the mix.
A light reflection device comprising: a reflection member having a reflection surface that is formed in a planar shape for reflecting incident light, the reflection member configured to perform a revolution and a rotation simultaneously; and motor, wherein a direction of the revolution of the reflection member and a direction of the rotation of the reflection member are the same, and the motor is configured to drive the reflection member so that the angular velocity of the revolution of the reflection member is equal to twice angular velocity of the rotation of the reflection member. a reflection member having a reflection surface that is formed in a planar shape for reflecting incident light, the reflection member configured to perform a revolution and a rotation simultaneously; and motor, wherein a direction of the revolution of the reflection member and a direction of the rotation of the reflection member are the same, and the motor is configured to drive the reflection member so that the angular velocity of the revolution of the reflection member is equal to twice angular velocity of the rotation of the reflection member.
Heat exchange system for a shower comprising a tray comprising a heat exchanger comprising an inlet and an outlet, a double channel for fluid flow, wherein a first channel is adapted to be in fluid connection with a cold water outlet and the heat exchanger inlet and a second channel is adapted to be in fluid connection with the heat exchanger outlet and a shower faucet, and a fluid diverter, the diverter comprising a first fluid flow path for receiving cold water from the cold water outlet and transferring cold water to the heat exchanger inlet and a second fluid flow path for receiving warm water from the heat exchanger outlet and transferring said warm water to the shower faucet, and a fixator for fixing to a cold water outlet, characterized in that the heat exchanger comprises a meandering fluid flow path with straight tube segments for exchanging heat from warm shower water to cold inflow water, wherein the straight tube segments of the heat exchanger are substantially in a direction perpendicular to warm shower water provided through the tray, wherein a warm water flow path preferably is provided in a 0,01-4 cm thick horizontal duct, preferably a variable thick horizontal duct. a double channel for fluid flow, wherein a first channel is adapted to be in fluid connection with a cold water outlet and the heat exchanger inlet and a second channel is adapted to be in fluid connection with the heat exchanger outlet and a shower faucet, and a fluid diverter, the diverter comprising a first fluid flow path for receiving cold water from the cold water outlet and transferring cold water to the heat exchanger inlet and a second fluid flow path for receiving warm water from the heat exchanger outlet and transferring said warm water to the shower faucet, and a fixator for fixing to a cold water outlet, characterized in that the heat exchanger comprises a meandering fluid flow path with straight tube segments for exchanging heat from warm shower water to cold inflow water, wherein the straight tube segments of the heat exchanger are substantially in a direction perpendicular to warm shower water provided through the tray, wherein a warm water flow path preferably is provided in a 0,01-4 cm thick horizontal duct, preferably a variable thick horizontal duct.
A fall protection safety device including a braking mechanism, comprising: a first component; a second component configured and arranged to move relative to the first component; and at least one magnet operatively connected to one of the components and another of the components being at least partially made of a non-ferromagnetic and electrically conductive material, the at least one magnet and the non-ferromagnetic and electrically conductive material creating an electromagnetic field force when the second component moves at a rate greater than a predetermined rate relative to the first component; wherein the first component is a housing and the second component includes a drum rotatably operatively connected to the housing, further comprising a lifeline having an intermediate portion interconnecting a first end and a second end, the first end being operatively connected to the drum, the intermediate portion being wound about the drum, and the second end extending through the housing, wherein the at least one magnet is directly operatively connected to the drum. a first component; a second component configured and arranged to move relative to the first component; and at least one magnet operatively connected to one of the components and another of the components being at least partially made of a non-ferromagnetic and electrically conductive material, the at least one magnet and the non-ferromagnetic and electrically conductive material creating an electromagnetic field force when the second component moves at a rate greater than a predetermined rate relative to the first component; wherein the first component is a housing and the second component includes a drum rotatably operatively connected to the housing, further comprising a lifeline having an intermediate portion interconnecting a first end and a second end, the first end being operatively connected to the drum, the intermediate portion being wound about the drum, and the second end extending through the housing, wherein the at least one magnet is directly operatively connected to the drum.
A stable pharmaceutical composition for topical application which is a cream, useful in the treatment of localized dermatosis ailments accompanied with inflammation, concomitantly with infections caused by bacterial and mycotic organisms, characterized by comprising per each 100 mg of composition: from 0.5 to 8.0 mg of fusidic acid, from 0.01 to 2.0 mg of a betamethasone salt, from 0.25 to 5.0 mg of clotrimazole, from 5.0 to 6.5 mg of a first dispersing agent selected from the group consisting of propylene glycol, polyethylene glycol, glycol derivatives, liquid paraffin, Carbopol 980 and Carbopol 940; from 0.3 to 0.5 mg of a second dispersing agent selected from the group consisting of propylene glycol, polyethylene glycol, glycol derivatives, liquid paraffin, Carbopol 980 and Carbopol 940; from 3.2 to 4.5 mg of an emulsifying agent; from 2.5 to 3.5 mg of a moisturizing agent; and from 74.0 to 84.0 of water.