mhurhangee/ep-ind-claims huggingface dataset:
Polycrystalline diamond, wherein the polycrystalline diamond includes a plurality of crystal grains, each of the crystal grains has a diamond single phase as basic composition, the polycrystalline diamond contains boron, hydrogen, oxygen, and a remainder containing carbon and trace impurities, the boron is dispersed in the crystal grains at an atomic level, and greater than or equal to 90 atomic% of the boron is present in an isolated substitutional type, the hydrogen and the oxygen are present in an isolated substitutional type or an interstitial type in the crystal grains, each of the crystal grains has a grain size of less than or equal to 500 nm, and the polycrystalline diamond has a surface covered with a protective film. the polycrystalline diamond includes a plurality of crystal grains, each of the crystal grains has a diamond single phase as basic composition, the polycrystalline diamond contains boron, hydrogen, oxygen, and a remainder containing carbon and trace impurities, the boron is dispersed in the crystal grains at an atomic level, and greater than or equal to 90 atomic% of the boron is present in an isolated substitutional type, the hydrogen and the oxygen are present in an isolated substitutional type or an interstitial type in the crystal grains, each of the crystal grains has a grain size of less than or equal to 500 nm, and the polycrystalline diamond has a surface covered with a protective film.
Method for handling notifications by using a user equipment, which is capable of receiving the notifications, wherein the user equipment is protected by locking against an unintended usage, wherein the user equipment contains a graphical user interface with a touch screen, wherein the user interface comprises at least one first area and at least one second area (150; 160; 170); and wherein the method is characterised by the following steps: displaying a received notification in the first area; displaying a handling menu in the second area (150; 160; 170); activating the handling menu if a user activates the handling menu by touching a first graphical element (151, 161, 171) in the handling menu; and unlocking the user equipment and carrying out an action if the user maintains the touch on the first graphical element and moves said element onto a second graphical element comprised in the handling menu (150; 160; 170). displaying a received notification in the first area; displaying a handling menu in the second area (150; 160; 170); activating the handling menu if a user activates the handling menu by touching a first graphical element (151, 161, 171) in the handling menu; and unlocking the user equipment and carrying out an action if the user maintains the touch on the first graphical element and moves said element onto a second graphical element comprised in the handling menu (150; 160; 170).
A particulate composition comprising sugar alcohol and a water-insoluble polymer, wherein the water-insoluble polymer is micro-fibrillated cellulose.
A fuel cell stack assembly comprising: a first encapsulation member comprising a first end plate and two side walls extending transversely from the first end plate, wherein the distal portion of each of the side walls comprises a lip; a second encapsulation member comprising a second end plate and two rims; and one or more fuel cells located between the first end plate and second end plate; wherein the first end plate of the first encapsulation member and the second encapsulation member are biased towards one another by an external load, thereby providing a compression of the one or more fuel cells to predetermined working load and each of the two lips corresponds with one of the two rims to define a bonding plane that extends away from the one or more fuel cells, wherein the lips are parallel with the respective rims and are thereby configured to enable bonding at any point during the compression of the one or more fuel cells, such that the bonding plane is configured to retain the first end plate and the second end plate in a fixed relative position to maintain the compression of the one or more fuel cells after the load is removed; wherein the two rims extend transversely from the second end plate and the bonding plane extends in a direction that is transverse to the plane of the fuel cells. a first encapsulation member comprising a first end plate and two side walls extending transversely from the first end plate, wherein the distal portion of each of the side walls comprises a lip; a second encapsulation member comprising a second end plate and two rims; and one or more fuel cells located between the first end plate and second end plate; wherein the first end plate of the first encapsulation member and the second encapsulation member are biased towards one another by an external load, thereby providing a compression of the one or more fuel cells to predetermined working load and each of the two lips corresponds with one of the two rims to define a bonding plane that extends away from the one or more fuel cells, wherein the lips are parallel with the respective rims and are thereby configured to enable bonding at any point during the compression of the one or more fuel cells, such that the bonding plane is configured to retain the first end plate and the second end plate in a fixed relative position to maintain the compression of the one or more fuel cells after the load is removed;
A solid catalyst component for olefin polymerization, of which the molar ratio (RO/Ti) of residual alkoxy groups to supported titanium (Ti) is 0.30 or less and which is a reaction product obtained by reacting the following compounds to (c3-1) or the following compounds to at a temperature of 120°C or higher but 150°C or lower, washing the reaction mixture with an inert solvent at a temperature of 100°C or higher but 150°C or lower, further reacting the reaction mixture with the following halogen-containing titanium compound at least once at a temperature of 120°C or higher but 150°C or lower, and washing the reaction mixture with an inert solvent at a temperature of 100°C or higher but 150°C or lower, a halogen-containing titanium compound, an alkoxy-group-containing magnesium compound which has an average particle diameter of 50 μm or less and is obtained by reacting metal magnesium, an alcohol and a halogen and/or halogen-containing compound containing at least 0.0001 gram atom of halogen atom per mole of said metal magnesium at a temperature of 30 to 60°C, (c3-1) a halogen-containing silicon compound used in such amount that the molar ratio of halogen to the alkoxy group of the alkoxy-group-containing magnesium compound is 0.50 or more, an electron-donating compound. a halogen-containing titanium compound, an alkoxy-group-containing magnesium compound which has an average particle diameter of 50 μm or less and is obtained by reacting metal magnesium, an alcohol and a halogen and/or halogen-containing compound containing at least 0.0001 gram atom of halogen atom per mole of said metal magnesium at a temperature of 30 to 60°C, (c3-1) a halogen-containing silicon compound used in such amount that the molar ratio of halogen to the alkoxy group of the alkoxy-group-containing magnesium compound is 0.50 or more, an electron-donating compound.
A three-dimensional printer comprising: at least one nozzle unit comprising a nozzle (20, 30) to extrude a 3D printing material; a nozzle-shifting unit configured to shift the at least one nozzle unit in all directions; and an output area under the at least one nozzle unit and on which the 3D printing material extruded from the nozzle (20, 30) is stacked and an output is formed, wherein the nozzle (20, 30) comprises: a discharge port (21, 31) in a bottom surface (22, 32) of the nozzle (20, 30) and configured to extrude the 3D printing material, the discharge port (21, 31) being eccentrically located with respect to a center of the bottom surface (22, 32), and wherein the 3D printer further comprises a controller configured to control a speed ratio (Vt/Vp) of a discharge speed (Vt) over a printing speed (Vp) to be in a range of about 0.1 to about 10, wherein Vp is a speed of the nozzle (20, 30) while forming the output, and Vt is a speed at which the 3D printing material is extruded from the nozzle. at least one nozzle unit comprising a nozzle (20, 30) to extrude a 3D printing material; a nozzle-shifting unit configured to shift the at least one nozzle unit in all directions; and an output area under the at least one nozzle unit and on which the 3D printing material extruded from the nozzle (20, 30) is stacked and an output is formed, wherein the nozzle (20, 30) comprises: a discharge port (21, 31) in a bottom surface (22, 32) of the nozzle (20, 30) and configured to extrude the 3D printing material, the discharge port (21, 31) being eccentrically located with respect to a center of the bottom surface (22, 32), and wherein the 3D printer further comprises a controller configured to control a speed ratio (Vt/Vp) of a discharge speed (Vt) over a printing speed (Vp) to be in a range of about 0.1 to about 10, wherein Vp is a speed of the nozzle (20, 30) while forming the output, and Vt is a speed at which the 3D printing material is extruded from the nozzle.
Operating unit for a container treatment machine, wherein the operating unit comprises at least one touch-sensitive display device, and the operating unit can be operated in two operating modes, wherein a first operating mode is only executed if the operating unit is connected to an operating station of the container treatment machine, and wherein a second operating mode is only executed if the operating unit is not physically connected to the operating station, wherein the first operating mode and the second operating mode differ at least with regard to one function that can be executed with the operating unit, characterized in that in the second operating mode, at least one of the following functions is available: diagnosis function, parameterization of the container treatment machine, monitoring of the operation of the container treatment machine.
A smoke inhalation device comprising: a housing; a cartridge (114; 214) configured to contain a substance; a release device (118; 218) associated with the cartridge (114; 214) and configured to release a variable amount of the substance; a communication device (146; 246); a controller (124; 224) operatively and communicatively coupled to the release device (118; 218) and the communication device (146; 246), the controller (124; 224) being configured to control the release device (118; 218); a timer; a sensor to detect airflow through the device and to activate the timer; and a power source (122; 222) operatively coupled to the release device (118; 218), the communication device (146; 246), the controller (124; 224), the sensor, and the timer, wherein the communication device (146; 246) is configured to create a communications link between the controller (124; 224) and an external computer, such that the communications link is configured to receive and transmit data relating to settings and/or usage of the smoke inhalation device, wherein the data relating to usage of the smoke inhalation device includes data measured by the timer representative of at least one of: time elapsed between puffs, duration of airflow for each puff, total time accumulated for the airflow over a given period, and time elapsed between uses of the smoke inhalation device. a housing; a cartridge (114; 214) configured to contain a substance; a release device (118; 218) associated with the cartridge (114; 214) and configured to release a variable amount of the substance; a communication device (146; 246); a controller (124; 224) operatively and communicatively coupled to the release device (118; 218) and the communication device (146; 246), the controller (124; 224) being configured to control the release device (118; 218); a timer; a sensor to detect airflow through the device and to activate the timer; and a power source (122; 222) operatively coupled to the release device (118; 218), the communication device (146; 246), the controller (124; 224), the sensor, and the timer, wherein the communication device (146; 246) is configured to create a communications link between the controller (124; 224) and an external computer, such that the communications link is configured to receive and transmit data relating to settings and/or usage of the smoke inhalation device, wherein the data relating to usage of the smoke inhalation device includes data measured by the timer representative of at least one of: time elapsed between puffs, duration of airflow for each puff, total time accumulated for the airflow over a given period, and time elapsed between uses of the smoke inhalation device.
A method of manufacturing a gas turbine engine air seal comprising: depositing an abradable coating onto a substrate, depositing the abradable coating including: agglomerating a matrix, and mixing with the matrix a first hexagonal boron nitride powder; characterised in that said matrix is agglomerated of a second hexagonal boron nitride powder and an oxide ceramic powder, wherein the amount by volume of oxide ceramic in the abradable layer is about 25-45%, and the amount by volume of porosity is about 5-15% of the abradable layer, and wherein the second hexagonal boron nitride powder comprises particles of 1-10 microns agglomerated with the oxide ceramic powder which comprises particles of 1-45 microns, and the first hexagonal boron nitride powder comprises particles of 15-100 microns. agglomerating a matrix, and mixing with the matrix a first hexagonal boron nitride powder; characterised in that said matrix is agglomerated of a second hexagonal boron nitride powder and an oxide ceramic powder, wherein the amount by volume of oxide ceramic in the abradable layer is about 25-45%, and the amount by volume of porosity is about 5-15% of the abradable layer, and wherein the second hexagonal boron nitride powder comprises particles of 1-10 microns agglomerated with the oxide ceramic powder which comprises particles of 1-45 microns, and the first hexagonal boron nitride powder comprises particles of 15-100 microns.
A composition which is an additive composition comprising a plurality of granules, the granules comprising a polymer additive selected from clarifying agents, nucleating agents, and mixtures thereof, wherein (i) the granules present in the additive composition have a substantially spherical shape and are obtainable by a granulation method selected from pan/disc granulation, drum granulation and fluid bed granulation, and (ii) ≥ 75 wt.-% of the granules present in the additive composition have a particle size of 0.5-2.8 mm, and wherein the granules have a particle hardness of < 50 cN, measured by crushing particles having a particle size of 0.5-2 mm using a force gauge fitted with a flat tip. (i) the granules present in the additive composition have a substantially spherical shape and are obtainable by a granulation method selected from pan/disc granulation, drum granulation and fluid bed granulation, and (ii) ≥ 75 wt.-% of the granules present in the additive composition have a particle size of 0.5-2.8 mm, and wherein the granules have a particle hardness of < 50 cN, measured by crushing particles having a particle size of 0.5-2 mm using a force gauge fitted with a flat tip.
A dye mixture, comprising at least one dye of formula and at least one dye from the group of formulae and wherein Q 1 is C 1 -C 4 alkyl, halogen or a radical -SO 2 -Z, Q 2 and Q 3 are each independently of the other C 1 -C 4 alkoxy, Q 4 is C 1 -C 4 alkoxy, C 1 -C 4 alkyl, halogen or sulfo, Q 5 is C 1 -C 4 alkoxy, C 1 -C 4 alkyl, C 1 -C 4 alkanoylamino, ureido, halogen or sulfo, R 1, R 2 and R 3 are each independently of the others hydrogen or unsubstituted or substituted C 1 -C 4 alkyl, k and q are each independently of the other the number 0 or 1, n and p are each independently of the other the number 0, 1 or 2, m is the number 0, 1, 2 or 3, t is the number 1, 2 or 3, X 1, X 2 and X 3 are each independently of the others halogen, 3-carboxypyridin-1-yl or 3-carbamoylpyridin-1-yl, and T 1, T 2 and T 3 are each independently of the others a fibre-reactive radical of formula -NH-(CH 2) 2-3 -SO 2 -Z, -NH-(CH 2) 2-3 -O-(CH 2) 2-3 -SO 2 -Z, or wherein (R 4) 0-2 denotes from 0 to 2 identical or different substituents from the group halogen, C 1 -C 4 alkyl, C 1 -C 4 alkoxy and sulfo, Z is vinyl or a radical -CH 2 -CH 2 -U and U is a group removable under alkaline conditions, Q is a group -CH(Hal)-CH 2 -Hal or -C(Hal)=CH 2, and Hal is halogen. Q 1 is C 1 -C 4 alkyl, halogen or a radical -SO 2 -Z, Q 2 and Q 3 are each independently of the other C 1 -C 4 alkoxy, Q 4 is C 1 -C 4 alkoxy, C 1 -C 4 alkyl, halogen or sulfo, Q 5 is C 1 -C 4 alkoxy, C 1 -C 4 alkyl, C 1 -C 4 alkanoylamino, ureido, halogen or sulfo, R 1, R 2 and R 3 are each independently of the others hydrogen or unsubstituted or substituted C 1 -C 4 alkyl, k and q are each independently of the other the number 0 or 1, n and p are each independently of the other the number 0, 1 or 2, m is the number 0, 1, 2 or 3, t is the number 1, 2 or 3, X 1, X 2 and X 3 are each independently of the others halogen, 3-carboxypyridin-1-yl or 3-carbamoylpyridin-1-yl, and T 1, T 2 and T 3 are each independently of the others a fibre-reactive radical of formula -NH-(CH 2) 2-3 -SO 2 -Z, -NH-(CH 2) 2-3 -O-(CH 2) 2-3 -SO 2 -Z, or wherein (R 4) 0-2 denotes from 0 to 2 identical or different substituents from the group halogen, C 1 -C 4 alkyl, C 1 -C 4 alkoxy and sulfo, Z is vinyl or a radical -CH 2 -CH 2 -U and U is a group removable under alkaline conditions, Q is a group -CH(Hal)-CH 2 -Hal or -C(Hal)=CH 2, and Hal is halogen. (R 4) 0-2 denotes from 0 to 2 identical or different substituents from the group halogen, C 1 -C 4 alkyl, C 1 -C 4 alkoxy and sulfo, Z is vinyl or a radical -CH 2 -CH 2 -U and U is a group removable under alkaline conditions, Q is a group -CH(Hal)-CH 2 -Hal or -C(Hal)=CH 2, and Hal is halogen.
A scalable pooled-Non-Volatile Memory Express, NVMe, storage box, comprising: a first PCI Express, PCIe, switch; a first switch port directly connected to the first PCIe switch; a first device port; a first plurality of NVMe drives (1901, 1902, 1903, 1904), each NVMe drive (1901,1902, 1903, 1904) of the first plurality of NVMe drives (1901, 1902, 1903, 1904) comprising a first port and a second port, wherein first ports of the first plurality of NVMe drives (1901, 1902, 1903, 1904) are directly connected to the first PCIe switch to connect a first plurality of nodes (1011, 1012, 1013, 1014), wherein second ports of the first plurality of NVMe drives (1901, 1902, 1903, 1904) are directly connected to the first device port; a second PCIe switch; a second switch port directly connected to the second PCIe switch; a second device port; and a second plurality of NVMe drives, each NVMe drive of the second plurality of NVMe drives comprising a first port and a second port, wherein first ports of the second plurality of NVMe drives are directly connected to the second PCIe switch to connect a second plurality of nodes (1015, 1016, 1017, 1018), wherein second ports of the second plurality of NVMe drives are directly connected to the second device port, characterized in that the first device port is directly connected to the second switch port, and the first switch port is directly connected to the second device port. a first PCI Express, PCIe, switch; a first switch port directly connected to the first PCIe switch; a first device port; a first plurality of NVMe drives (1901, 1902, 1903, 1904), each NVMe drive (1901,1902, 1903, 1904) of the first plurality of NVMe drives (1901, 1902, 1903, 1904) comprising a first port and a second port, wherein first ports of the first plurality of NVMe drives (1901, 1902, 1903, 1904) are directly connected to the first PCIe switch to connect a first plurality of nodes (1011, 1012, 1013, 1014), wherein second ports of the first plurality of NVMe drives (1901, 1902, 1903, 1904) are directly connected to the first device port; a second PCIe switch; a second switch port directly connected to the second PCIe switch; a second device port; and a second plurality of NVMe drives, each NVMe drive of the second plurality of NVMe drives comprising a first port and a second port, wherein first ports of the second plurality of NVMe drives are directly connected to the second PCIe switch to connect a second plurality of nodes (1015, 1016, 1017, 1018), wherein second ports of the second plurality of NVMe drives are directly connected to the second device port, characterized in that the first device port is directly connected to the second switch port, and the first switch port is directly connected to the second device port.
A transport device comprising: a thermally insulated container that has a cylindrical shape and a bottom, a heat storage material disposed along the inner circumferential surface of the thermally insulated container, a temperature control unit that is detachably fitted on the thermally insulated container and is configured for performing thermal storage temperature controlling treatment on the heat storage material, and a first temperature sensor for measuring a temperature of the heat storage material, wherein the temperature controlling unit comprises a heat transferring body for performing the thermal storage temperature control processing on the heat storage material when the temperature control unit is fitted on the thermally insulated container, and a controller for controlling the temperature of the heat transferring body on the basis of a measurement signal of the first temperature sensor, characterised in that the first temperature sensor measures the temperature of a surface of the heat storage material which faces away from the heat transferring body in a thickness direction of the heat storage material. a thermally insulated container that has a cylindrical shape and a bottom, a heat storage material disposed along the inner circumferential surface of the thermally insulated container, a temperature control unit that is detachably fitted on the thermally insulated container and is configured for performing thermal storage temperature controlling treatment on the heat storage material, and a first temperature sensor for measuring a temperature of the heat storage material, wherein the temperature controlling unit comprises a heat transferring body for performing the thermal storage temperature control processing on the heat storage material when the temperature control unit is fitted on the thermally insulated container, and a controller for controlling the temperature of the heat transferring body on the basis of a measurement signal of the first temperature sensor, characterised in that the first temperature sensor measures the temperature of a surface of the heat storage material which faces away from the heat transferring body in a thickness direction of the heat storage material.
A nitrone spin trap having the chemical structure of: wherein X is phenyl or substituted phenyl with up to five substitution groups on the phenyl ring, wherein each said substitution groups is independently selected from the group consisting of hydrogen, halogen, alkyl, substituted alkyl, alkaryl, alkoxyl, alkenyl, and amino, and Y is selected from the group consisting of alkyl, substituted alkyl, alkenyl, alkynyl, naphthyl, heterocyclic, alkcycloalkyl, cycloalkyl and cycloalkenyl; for use in a topical composition for the prevention and treatment of psoriasis; wherein said topical composition comprises from 1% to 40% of said nitrone spin trap by weight of the topical composition, 0.025% to 0.5% of polyenylphosphatidylcholine by weight of the topical composition; and a dermatologically acceptable lecithin carrier.