mhurhangee/ep-ind-claims huggingface dataset:
A washing machine comprising a tub, at least one water inlet valve that enables water intake into the tub from the water mains, a cross-flow type filtration unit that provides the removal of the hardness of water by passing the mains water through a filter, a soft water line that provides delivering of the water removed of hardness in the filtration unit to the tub, a reservoir that is connected to the water inlet valve, a supply line that enables the water to be circulated between the reservoir and the filtration unit and that delivers water from the reservoir to the filtration unit, and a return line that enables the hard water running down from the filter by flowing together with the substances trapped on the surface of the filter in the filtration unit to be transferred to the reservoir, characterized by at least one sterilization unit that enables the water kept in the filtration unit to be sterilized and wherein the sterilization unit is situated on the supply line and is disposed at the inlet of the filtration unit and/or wherein the sterilization unit is situated on the soft water line and is disposed at the outlet of the filtration unit, and in case that the sterilization unit is situated on the soft water line, the washing machine is further characterized by a control unit that activates the sterilization unit for a predetermined sterilization time (t s) if the time the water is kept inside the filtration unit (t b) is longer than a predetermined water waiting time (t bset).
Micromechanical measuring element, having - a sensitive element, which comprises a diaphragm with an underside and an upper side, and - a cap, which is connected directly to the sensitive element, - at least one contact-making surface for making electric contact with the sensitive element, - wherein the sensitive element and the cap form a first chamber, - wherein the first chamber has a first opening, - wherein the cap has a hole which forms the first opening, - wherein the sensitive element is connected directly to a carrier on a side facing away from the cap, - wherein a second chamber is formed between the sensitive element and the carrier, - wherein the second chamber has a second opening, - wherein the second opening is formed in the sensitive element, - wherein the measuring element has a plurality of outer sides, and - wherein the first opening and the second opening are arranged on the same outer side. - a sensitive element, which comprises a diaphragm with an underside and an upper side, and - a cap, which is connected directly to the sensitive element, - at least one contact-making surface for making electric contact with the sensitive element, - wherein the sensitive element and the cap form a first chamber, - wherein the first chamber has a first opening, - wherein the cap has a hole which forms the first opening, - wherein the sensitive element is connected directly to a carrier on a side facing away from the cap, - wherein a second chamber is formed between the sensitive element and the carrier, - wherein the second chamber has a second opening, - wherein the second opening is formed in the sensitive element, - wherein the measuring element has a plurality of outer sides, and - wherein the first opening and the second opening are arranged on the same outer side.
A rolling bearing apparatus comprising: a rolling bearing (1,31) provided with a fixed side raceway member (11,41), a rotating side raceway member (12,42), and a plurality of rolling elements (13,43) allowing both the raceway members (12,13,42,43) to relatively rotate; and an oil supply unit (2,32) provided with a lubricating fluid discharge nozzle (23,53) having an opening facing to a portion near the rolling elements (13,43) or raceway surface of the raceway member (12,13,42,43), characterised in that the lubricating fluid discharge nozzle (23,53,63) is constituted by a main body (25,55,65) extending in an axial direction and a discharge portion (26,56,66) bent approximately perpendicular to the main body (25,55,65) and having the opening at a distal end, and the opening direction of the discharge portion (26,56,66) is directed to the direction of an air flow generated during rotation. a rolling bearing (1,31) provided with a fixed side raceway member (11,41), a rotating side raceway member (12,42), and a plurality of rolling elements (13,43) allowing both the raceway members (12,13,42,43) to relatively rotate; and an oil supply unit (2,32) provided with a lubricating fluid discharge nozzle (23,53) having an opening facing to a portion near the rolling elements (13,43) or raceway surface of the raceway member (12,13,42,43), characterised in that the lubricating fluid discharge nozzle (23,53,63) is constituted by a main body (25,55,65) extending in an axial direction and a discharge portion (26,56,66) bent approximately perpendicular to the main body (25,55,65) and having the opening at a distal end, and the opening direction of the discharge portion (26,56,66) is directed to the direction of an air flow generated during rotation.
A method of BMP-2 production comprising the steps of: i) culturing a suitable host cell comprising a DNA molecule encoding a BMP-2 in a culture medium comprising iron at a concentration of at least 2.25 μM, a polyanionic compound, and if pyridoxal is present, it makes up less than 55 % of the molar concentration of vitamin B6 in the culture medium; and ii) recovering the protein of interest wherein the host cell is cultured in a bioreactor having a capacity of at least 160L, wherein the culture medium further comprises copper at a concentration of at least 10 nM; and, wherein the suitable host cell is a CHO cell. i) culturing a suitable host cell comprising a DNA molecule encoding a BMP-2 in a culture medium comprising iron at a concentration of at least 2.25 μM, a polyanionic compound, and if pyridoxal is present, it makes up less than 55 % of the molar concentration of vitamin B6 in the culture medium; and ii) recovering the protein of interest
Assembly of a part on a hollow element, the latter comprising a first wall and a second wall that are substantially parallel, characterized in that the part comprises at least one cylindrical protrusion of flexible material that encloses a recess for receiving a snap-fitting peg, the peg being made of a material that is more rigid than the flexible material of the protrusion, the assembly being able to be transformed between, on one hand, an initial configuration in which the protrusion, with the peg partially engaged in the recess, is inserted into an opening of the first wall and, on the other hand, a final configuration in which the peg is fully engaged in the recess under the influence of the thrust exerted by the second wall on the peg when the protrusion is inserted into the opening, wherein the full engagement of the peg in the recess causes radial expansion of the protrusion, causing it to hook onto the rim of the opening in the first wall.
A method for coupling two different polypeptides together at their respective C-terminus comprising (a) an enzyme catalyzed modification of the C-termini of the polypeptides to be coupled by which a chemical group comprising reactive group W is introduced to the C-terminus of the first polypeptide to be coupled, and a chemical group comprising reactive group Z is introduced to the C-terminus of the second polypeptide to be coupled (b) reacting the reactive group Z with a reactive group Y of a spacer-molecule to form a chemical group X and reacting the reactive group W with a reactive group V of the spacer-molecule to form a chemical group U, wherein spacer between the two polypeptides comprises at least one ethylene glycol diradical, wherein X and U are independently selected from the group consisting of diradicals of oxime and triazole wherein V, W, Y and Z are independently selected from the group consisting of alkoxylamino, oxo, azido and alkynyl, (a) an enzyme catalyzed modification of the C-termini of the polypeptides to be coupled by which a chemical group comprising reactive group W is introduced to the C-terminus of the first polypeptide to be coupled, and a chemical group comprising reactive group Z is introduced to the C-terminus of the second polypeptide to be coupled (b) reacting the reactive group Z with a reactive group Y of a spacer-molecule to form a chemical group X and reacting the reactive group W with a reactive group V of the spacer-molecule to form a chemical group U, wherein spacer between the two polypeptides comprises at least one ethylene glycol diradical, wherein X and U are independently selected from the group consisting of diradicals of oxime and triazole wherein V, W, Y and Z are independently selected from the group consisting of alkoxylamino, oxo, azido and alkynyl,
Optoelectronic component comprising at least one photoactive layer disposed between an electrode and a counterelectrode, wherein the photoactive layer comprises a mixed multiple layer containing at least three materials, wherein at least one material is an organic material composed of small molecules, wherein at least one material is a donor and at least one material is an acceptor, wherein the donor and the acceptor form a donor-acceptor system and at least one third material which is set up so as to affect the propensity of the donor and/or acceptor to crystallize, characterized in that the third materials is selected from the group of the crown ethers.
A system comprising: a memory system including: non-volatile storage cells; and logic to: in response to a notification that data stored in a region of the storage cells is invalid data, mark the region as storing invalid data; delay an operation to erase the region until receiving a command to re-program the region with other data; and responsive to receipt of the command to re-program the region, at least in part erase the region and program the erased region with the other data. a memory system including: non-volatile storage cells; and logic to: in response to a notification that data stored in a region of the storage cells is invalid data, mark the region as storing invalid data; delay an operation to erase the region until receiving a command to re-program the region with other data; and responsive to receipt of the command to re-program the region, at least in part erase the region and program the erased region with the other data. non-volatile storage cells; and logic to: in response to a notification that data stored in a region of the storage cells is invalid data, mark the region as storing invalid data; delay an operation to erase the region until receiving a command to re-program the region with other data; and responsive to receipt of the command to re-program the region, at least in part erase the region and program the erased region with the other data. in response to a notification that data stored in a region of the storage cells is invalid data, mark the region as storing invalid data; delay an operation to erase the region until receiving a command to re-program the region with other data; and responsive to receipt of the command to re-program the region, at least in part erase the region and program the erased region with the other data.
Control unit device for a motor vehicle, having - a circuit board on which a plurality of electronic components are arranged, which electronic components are electrically coupled to one another via conductor tracks of the circuit board, wherein the circuit board is arranged on a metallic base carrier; and - an essentially gas-impermeable cover which is connected in a materially joined fashion to the circuit board in such a way that said cover forms with the circuit board a closed cavity in which the electronic components and the associated conductor tracks are located, characterized in that the control unit device also has a plug connector which is arranged on the base carrier and electrically coupled to the circuit board, wherein the cover is configured in such a way that, in the state in which it is connected to the circuit board, it secures the plug connector mechanically to the base carrier outside the cavity. - a circuit board on which a plurality of electronic components are arranged, which electronic components are electrically coupled to one another via conductor tracks of the circuit board, wherein the circuit board is arranged on a metallic base carrier; and - an essentially gas-impermeable cover which is connected in a materially joined fashion to the circuit board in such a way that said cover forms with the circuit board a closed cavity in which the electronic components and the associated conductor tracks are located,
A light emitting device comprising: a substrate including a semi-insulating substrate having a p-type or n-type carrier concentration of 5× 10 17 cm -3 or less and having a first surface and a second surface that are opposed to each other; a first contact layer with a carrier concentration of the first contact layer is 1 × 10 19 cm -3 or more that is stacked on the first surface of the substrate; a buffer layer with a carrier concentration of the buffer layer is less than 1 × 10 19 cm -3 and in which at least any of a material composition, and a composition ratio is different from that of the first contact layer, the buffer layer being stacked on the first contact layer; and a semiconductor stacked body that is stacked above the first surface of the substrate with the first contact layer and the buffer layer interposed in between, the semiconductor stacked body having a first light reflecting layer, an active layer, a second light reflecting layer stacked in order from the substrate side and a current confining layer between the first light reflecting layer and the active layer, the current confining layer having a current injection region, the semiconductor stacked body forming a light emitting region configured to emit laser light, wherein the first contact layer, the buffer layer, and the first light reflecting layer each include a p-type impurity. a substrate including a semi-insulating substrate having a p-type or n-type carrier concentration of 5× 10 17 cm -3 or less and having a first surface and a second surface that are opposed to each other; a first contact layer with a carrier concentration of the first contact layer is 1 × 10 19 cm -3 or more that is stacked on the first surface of the substrate; a buffer layer with a carrier concentration of the buffer layer is less than 1 × 10 19 cm -3 and in which at least any of a material composition, and a composition ratio is different from that of the first contact layer, the buffer layer being stacked on the first contact layer; and a semiconductor stacked body that is stacked above the first surface of the substrate with the first contact layer and the buffer layer interposed in between, the semiconductor stacked body having a first light reflecting layer, an active layer, a second light reflecting layer stacked in order from the substrate side and a current confining layer between the first light reflecting layer and the active layer, the current confining layer having a current injection region, the semiconductor stacked body forming a light emitting region configured to emit laser light, wherein the first contact layer, the buffer layer, and the first light reflecting layer each include a p-type impurity.
A dental gypsum-bonded investment material powder comprising: 0.001 to 0.2 weight % anionic surfactant; and 0.00001 to 0.0005 weight % cyclic siloxane having 3 to 10 SiO(CH 3) 2 units. 0.001 to 0.2 weight % anionic surfactant; and 0.00001 to 0.0005 weight % cyclic siloxane having 3 to 10 SiO(CH 3) 2 units.
A liposome comprising: a lipid bilayer; an elastin-like polypeptide conjugated to a hydrophobic moiety, wherein the hydrophobic moiety is in the lipid bilayer; and a lipid bilayer stabilizing agent, wherein the ELP is an amino acid polymer that is soluble in an aqueous solution below an inverse transition temperature (T t) and is insoluble as the temperature is raised higher than the inverse transition temperature T t. a lipid bilayer; an elastin-like polypeptide conjugated to a hydrophobic moiety, wherein the hydrophobic moiety is in the lipid bilayer; and a lipid bilayer stabilizing agent, wherein the ELP is an amino acid polymer that is soluble in an aqueous solution below an inverse transition temperature (T t) and is insoluble as the temperature is raised higher than the inverse transition temperature T t.
An intraluminal device including an elongated structure formed of a plurality of wires, the intraluminal device comprising: a first region wherein the plurality of wires are twisted to form a shaft; a second region, adjacent to the first region, wherein the plurality of wires are woven to form a scaffold; a third region, wherein the plurality of wires are separated into sets of looped pairs to form at least one clot engaging expandable mesh segment; and a fourth region, including at least one clot anchoring segment, wherein the clot anchoring segment is expandable to form a platform configured to engage a clot and push the clot proximally as the device is retrieved from a vessel, wherein the at least one clot anchoring segment and the at least one clot engaging expandable mesh segment are configured for independent expansion. a first region wherein the plurality of wires are twisted to form a shaft; a second region, adjacent to the first region, wherein the plurality of wires are woven to form a scaffold; a third region, wherein the plurality of wires are separated into sets of looped pairs to form at least one clot engaging expandable mesh segment; and a fourth region, including at least one clot anchoring segment, wherein the clot anchoring segment is expandable to form a platform configured to engage a clot and push the clot proximally as the device is retrieved from a vessel, wherein the at least one clot anchoring segment and the at least one clot engaging expandable mesh segment are configured for independent expansion.
A curable composition comprising: (a) a polymerizable epoxy-acrylate resin composition having a complex viscosity at 25°C and 1 Hz frequency of at least 4500 Pa-s, measured as specified in the description; and (b) abrasive particles partially or fully embedded in the polymerizable epoxy-acrylate resin component. (a) a polymerizable epoxy-acrylate resin composition having a complex viscosity at 25°C and 1 Hz frequency of at least 4500 Pa-s, measured as specified in the description; and (b) abrasive particles partially or fully embedded in the polymerizable epoxy-acrylate resin component.
A method of generating OLIG2+ oligodendrocyte progenitor cells (OPCs), the method comprising: (a) preparing human pluripotent stem cell (hPSC) colonies by: (i) seeding hPSCs at low density of 8,000 to 11,000 cells/cm 2 on a surface; and (ii) culturing the hPSCs in an adherent culture for 1-2 days, thereby preparing hPSC colonies; (b) culturing the hPSC colonies to confluence in a medium comprising a low concentration of retinoic acid of 10nM to 250nM, at least one inhibitor of transforming growth factor beta (TGFβ) signaling selected from SB431542, GW788388, LDN193189, LY2109761, LY2157299, and LY364947, and at least one inhibitor of bone morphogenetic protein signaling selected from LDN193189, DMH1, dorsomorphin, K02288, and Noggin, wherein the first day of said culturing is day 0; and (c) culturing the confluent cells in a medium comprising 3-chloro-N-[(1r,4r)-4-(methylamino)cyclohexyl]-N-[3-(pyridin-4-yl)benzyl]benzo[b]thiophene-2-carboxamide (Smoothened Agonist) and a low concentration of RA of 10nM to 250nM until cells are overconfluent, wherein the cells express OLIG2; thereby generating OLIG2+ OPCs. (a) preparing human pluripotent stem cell (hPSC) colonies by: (i) seeding hPSCs at low density of 8,000 to 11,000 cells/cm 2 on a surface; and (ii) culturing the hPSCs in an adherent culture for 1-2 days, thereby preparing hPSC colonies; (i) seeding hPSCs at low density of 8,000 to 11,000 cells/cm 2 on a surface; and (ii) culturing the hPSCs in an adherent culture for 1-2 days, thereby preparing hPSC colonies; (b) culturing the hPSC colonies to confluence in a medium comprising a low concentration of retinoic acid of 10nM to 250nM, at least one inhibitor of transforming growth factor beta (TGFβ) signaling selected from SB431542, GW788388, LDN193189, LY2109761, LY2157299, and LY364947, and at least one inhibitor of bone morphogenetic protein signaling selected from LDN193189, DMH1, dorsomorphin, K02288, and Noggin, wherein the first day of said culturing is day 0; and (c) culturing the confluent cells in a medium comprising 3-chloro-N-[(1r,4r)-4-(methylamino)cyclohexyl]-N-[3-(pyridin-4-yl)benzyl]benzo[b]thiophene-2-carboxamide (Smoothened Agonist) and a low concentration of RA of 10nM to 250nM until cells are overconfluent, wherein the cells express OLIG2;
A control device of a hydraulic winch which has a normal operation mode and a fuel-saving operation mode in which a fuel-saving operation is performed unlike in the normal operation mode, is applied to a crane for hoisting/lowering a rope by a winch drum, and controls a rotation of the winch drum, the device comprising: an engine; a variable capacity hydraulic pump (131, 132) which is driven by the engine; a variable capacity hydraulic motor which is rotated by pressure oil from the hydraulic pump to drive the winch drum; a winch manipulating member configured to output hoisting/lowering commands for hoisting/lowering the rope; an engine control unit (150, 110a) configured to control a rotation speed of the engine to be in a range from a minimum rotation speed to a maximum rotation speed according to the hoisting/lowering commands from the winch manipulating member; a winch load detector configured to detect a load applied to the winch drum, characterized in that the device further comprises a motor capacity control unit configured to control a motor capacity of the hydraulic motor so as to decrease a motor capacity of the hydraulic motor in the fuel-saving operation mode to a motor capacity which is smaller than a motor capacity of the hydraulic motor in the normal operation mode, and the engine control unit sets an upper limit value of the rotation speed of the engine in the fuel-saving operation mode to a value which is lower than the maximum rotation speed of the engine in the normal operation mode and corresponds to the load detected by the winch load detector. an engine; a variable capacity hydraulic pump (131, 132) which is driven by the engine; a variable capacity hydraulic motor which is rotated by pressure oil from the hydraulic pump to drive the winch drum; a winch manipulating member configured to output hoisting/lowering commands for hoisting/lowering the rope; an engine control unit (150, 110a) configured to control a rotation speed of the engine to be in a range from a minimum rotation speed to a maximum rotation speed according to the hoisting/lowering commands from the winch manipulating member; a winch load detector configured to detect a load applied to the winch drum, characterized in that the device further comprises a motor capacity control unit configured to control a motor capacity of the hydraulic motor so as to decrease a motor capacity of the hydraulic motor in the fuel-saving operation mode to a motor capacity which is smaller than a motor capacity of the hydraulic motor in the normal operation mode, and the engine control unit sets an upper limit value of the rotation speed of the engine in the fuel-saving operation mode to a value which is lower than the maximum rotation speed of the engine in the normal operation mode and corresponds to the load detected by the winch load detector.