mhurhangee/ep-ind-claims huggingface dataset:
A flux-cored wire for welding different materials for use in different-material welding of aluminum or an aluminum alloy material and a galvanized steel material, the wire having: a cylindrical sheath made of an aluminum alloy consisting of Si in an amount of 0.8 to 1.9% by mass, with the remainder being aluminum and inevitable impurities, and a flux filling this sheath and containing cesium fluoride in an amount of 20 to 60% by mass, inevitable impurities in the sheath being Mn, Mg or Fe, the amounts of Mn, Mg and Fe contained being 0.1% by mass or lower of total mass of sheath, respectively, and a percentage filling of the flux being 5 to 20% by mass of the total mass of the wire. a cylindrical sheath made of an aluminum alloy consisting of Si in an amount of 0.8 to 1.9% by mass, with the remainder being aluminum and inevitable impurities, and a flux filling this sheath and containing cesium fluoride in an amount of 20 to 60% by mass, inevitable impurities in the sheath being Mn, Mg or Fe, the amounts of Mn, Mg and Fe contained being 0.1% by mass or lower of total mass of sheath, respectively, and a percentage filling of the flux being 5 to 20% by mass of the total mass of the wire.
A dressing for treating a tissue site with negative pressure, the dressing comprising: a bioresorbable manifold layer comprising: a first surface, a second surface opposite the first surface, a thickness extending between the first surface and the second surface, and a plurality of sacrificial zones configured to degrade upon placement of the bioresorbable manifold layer with respect to the tissue site and application of negative pressure to the bioresorbable manifold layer so as to allow communication of negative pressure between the first surface and the second surface; a bioresorbable manifolding structure formed from a first bioresorbable composition and comprising a plurality of apertures extending between the first surface and the second surface and corresponding to each of the plurality of sacrificial zones; and a second bioresorbable composition disposed within each of the plurality of apertures to form the sacrificial zones. a first surface, a second surface opposite the first surface, a thickness extending between the first surface and the second surface, and a plurality of sacrificial zones configured to degrade upon placement of the bioresorbable manifold layer with respect to the tissue site and application of negative pressure to the bioresorbable manifold layer so as to allow communication of negative pressure between the first surface and the second surface; a bioresorbable manifolding structure formed from a first bioresorbable composition and comprising a plurality of apertures extending between the first surface and the second surface and corresponding to each of the plurality of sacrificial zones; and a second bioresorbable composition disposed within each of the plurality of apertures to form the sacrificial zones.
A dryer capable of drying clothes, the dryer comprising: - a main body; - a drum rotatably installed inside the main body for accommodating clothes therein; - a driving motor for driving the drum; - a heating unit including: - a heat pump system constructing a thermodynamic cycle for heating air supplied into the drum, the heat pump system including an evaporator at an exhaust side from the drum, a condenser at an inlet side of the drum, an expansion valve and a compressor, - a heater installed downstream of the condenser for heating air supplied into the drum, - a control panel having a variety of manipulation buttons for operating the dryer; and - a controller configured to turn on or off at least one of the heat pump system or the heater according to a user selection inputted through the control panel, the heater increases an energy consumption of the dryer by supplying thermal energy, wherein a heat supply capacity of the heat pump system is more than that of the heater; the controller is adapted to activate one of a normal drying mode and a high-speed drying mode for reducing a drying time according to the user selection, to turn on the heat pump system in the normal mode, and to turn on both the heat pump system and the heater in the high-speed drying mode, characterized in that in high-speed drying mode, the controller is adapted to turn the heat pump system on, to turn the heater on after the heat pump system is normally turned on, turn the heater off to cool the drum and terminate drying after the drying is performed and turn the heat pump system off after the heater is turned off, wherein the controller is adapted to determine whether or not the compressor included in the heat pump system normally operates, and to drive the compressor so as to turn the heat pump system on after the normal operation of the heat pump system is checked. - a main body; - a drum rotatably installed inside the main body for accommodating clothes therein; - a driving motor for driving the drum; - a heating unit including: - a heat pump system constructing a thermodynamic cycle for heating air supplied into the drum, the heat pump system including an evaporator at an exhaust side from the drum, a condenser at an inlet side of the drum, an expansion valve and a compressor, - a heater installed downstream of the condenser for heating air supplied into the drum, - a heat pump system constructing a thermodynamic cycle for heating air supplied into the drum, the heat pump system including an evaporator at an exhaust side from the drum, a condenser at an inlet side of the drum, an expansion valve and a compressor, - a heater installed downstream of the condenser for heating air supplied into the drum, - a control panel having a variety of manipulation buttons for operating the dryer; and - a controller configured to turn on or off at least one of the heat pump system or the heater according to a user selection inputted through the control panel,
A grain-oriented electrical steel sheet comprising a linear groove formed on a surface thereof and extending in a direction forming an angle of 45° or less with a direction orthogonal to a rolling direction of the steel sheet, wherein presence frequency of fine grains with a length in the rolling direction of 1 mm or less in a floor portion of the groove is 10 % or less, including 0 % indicative of the absence of fine grains, the groove is provided with a forsterite film in an amount of 0.6 g/m 2 or more in terms of Mg coating amount per one surface of the steel sheet, and an average of angles (β angles) formed by <100> axes of secondary recrystallized grains facing the rolling direction and a rolling plane of the steel sheet is 3° or less.
A helical core of an annular multi-layered structure of steel plate core stacked while rotating the steel plate core in a helix starting from a bottom layer to a top layer, the steel plate core being formed by punching from an electric sheet in a state one pair of belt shaped bases are opposite to each other in a width direction thereof, and teeth respectively projected from the bases are alternate, the helical core comprising: a dowel pin on an upper or lower surface of each of the teeth of the steel plate core, and a hole in complementary to the dowel pin, for preventing the steel plate core from unwinding in a direction opposite to a rotation direction of the helix, and coming off from underlying/overlying layer of the steel plate core at the time of stacking of the steel plate core while rotating the steel plate core in a helix; a notch in the base between each of adjacent teeth of the steel plate core, for reducing a stress when the steel plate core is wound; and a substantially "C" shaped end of each of the teeth by chamfering corner portions of opposite edges of an end of each of the teeth in a straight or curved line, for reducing noise coming from a cogging torque during the motor is driven, wherein the steel plate cores are punched from the electric sheet in two rows, such that notches in complementary to the ends of the teeth of the steel plate core are formed in the base opposite to the teeth, characterized in that the teeth of the steel plate core each includes concavities to make easy separation of the steel plate cores punched in two rows. a dowel pin on an upper or lower surface of each of the teeth of the steel plate core, and a hole in complementary to the dowel pin, for preventing the steel plate core from unwinding in a direction opposite to a rotation direction of the helix, and coming off from underlying/overlying layer of the steel plate core at the time of stacking of the steel plate core while rotating the steel plate core in a helix; a notch in the base between each of adjacent teeth of the steel plate core, for reducing a stress when the steel plate core is wound; and a substantially "C" shaped end of each of the teeth by chamfering corner portions of opposite edges of an end of each of the teeth in a straight or curved line, for reducing noise coming from a cogging torque during the motor is driven, wherein the steel plate cores are punched from the electric sheet in two rows, such that notches in complementary to the ends of the teeth of the steel plate core are formed in the base opposite to the teeth, characterized in that the teeth of the steel plate core each includes concavities to make easy separation of the steel plate cores punched in two rows.
A manufacturing method of a solid state imaging device, the manufacturing method comprising: forming, on a substrate, a first gate electrode of a first transistor and a second gate electrode of a second transistor adjacent to the first transistor; forming an insulator film covering the first gate electrode and the second gate electrode such that a void is formed between the first gate electrode and the second gate electrode; forming a light shielding film on the insulator film; and forming a light shielding member by removing a part of the light shielding film by etching, the part being located over the void with the insulator film interposed between the light shielding film and the void. forming, on a substrate, a first gate electrode of a first transistor and a second gate electrode of a second transistor adjacent to the first transistor; forming an insulator film covering the first gate electrode and the second gate electrode such that a void is formed between the first gate electrode and the second gate electrode; forming a light shielding film on the insulator film; and forming a light shielding member by removing a part of the light shielding film by etching, the part being located over the void with the insulator film interposed between the light shielding film and the void.
Polymer-modified glass ionomer cement containing a.) at least one polymer of an alpha,beta-unsaturated carboxylic acid b.) a basic glass composition which is able to react with at least one polymer of an alpha,beta-unsaturated carboxylic acid c.) at least one free-radically polymerizable monomer d.) water e.) at least one polymerization initiator f.) optionally conventional additives such as colorants, tartaric acid, silica, fillers which are inert towards the polymer of an alpha,beta-unsaturated carboxylic acid, stabilizers, inhibitors, modifiers and bacteriocidal substances, characterized in that the basic glass composition is a combination of a first reactive glass powder having a d 50 of from 1.5 μm to 6 μm and a d 99 of from 7 μm to 20 μm and a second reactive glass powder having a d 50 of from 7 μm to 20 μm and a d 99 of from 10 μm to 25 μm, where the proportion of the first reactive glass powder is greater than the proportion of the second reactive glass powder. a.) at least one polymer of an alpha,beta-unsaturated carboxylic acid b.) a basic glass composition which is able to react with at least one polymer of an alpha,beta-unsaturated carboxylic acid c.) at least one free-radically polymerizable monomer d.) water e.) at least one polymerization initiator f.) optionally conventional additives such as colorants, tartaric acid, silica, fillers which are inert towards the polymer of an alpha,beta-unsaturated carboxylic acid, stabilizers, inhibitors, modifiers and bacteriocidal substances,
An apparatus (300, 400, 600), comprising: a first circuit (322-J1); a second circuit (322-J2); a power gating circuit (310-J) configured to generate a first load current (I LJ1) through the first circuit (322-J1) and a second load current (I LJ2) through the second circuit (322-J2); the apparatus is characterized by a current sensor configured to generate a first signal related to the first load current and the second load current, wherein the current sensor includes a first ring oscillator (335-J) comprising: a first set of one or more inverters (I J21) coupled to a first node between the power gating circuit (310-J) and the first circuit (322-J1) and a first voltage rail (VSS, VDD J), respectively, and a second set of one or more inverters (I J22) coupled to a second node between the power gating circuit (310-J) and the second circuit (322-J2) and the first voltage rail (VSS, VDD J), respectively. a first circuit (322-J1); a second circuit (322-J2); a power gating circuit (310-J) configured to generate a first load current (I LJ1) through the first circuit (322-J1) and a second load current (I LJ2) through the second circuit (322-J2); the apparatus is characterized by a current sensor configured to generate a first signal related to the first load current and the second load current, wherein the current sensor includes a first ring oscillator (335-J) comprising: a first set of one or more inverters (I J21) coupled to a first node between the power gating circuit (310-J) and the first circuit (322-J1) and a first voltage rail (VSS, VDD J), respectively, and a second set of one or more inverters (I J22) coupled to a second node between the power gating circuit (310-J) and the second circuit (322-J2) and the first voltage rail (VSS, VDD J), respectively. a first set of one or more inverters (I J21) coupled to a first node between the power gating circuit (310-J) and the first circuit (322-J1) and a first voltage rail (VSS, VDD J), respectively, and a second set of one or more inverters (I J22) coupled to a second node between the power gating circuit (310-J) and the second circuit (322-J2) and the first voltage rail (VSS, VDD J), respectively.
A rope maintenance method for an elevator comprising a plurality of wire ropes looped around a drive sheave; wherein a non-contact rope diameter measuring device is provided at a predetermined position in an elevator shaft along a path of the wire ropes; at a first inspection time, each rope diameter is measured at multiple measuring points set along each wire rope as a car is raised and lowered; a diameter reduction for rope diameter against a reference diameter constituted by the diameter of the wire rope at a location that does not contact the drive sheave or by the nominal diameter of the wire rope at each measuring point is stored as a first diameter reduction; characterised in that at a second inspection time at a certain period after the first inspection time, rope diameter is again measured at each of the measuring points of each of the wire ropes as the car is raised and lowered; a diameter reduction for rope diameter against a reference diameter constituted by the diameter of the wire rope at a location that does not contact the drive sheave or by the nominal diameter of the wire rope at each measuring point is stored as a second diameter reduction; the time at which the diameter reduction at each of the measuring points of each of the wire ropes will reach a predetermined threshold value is determined on the basis of the first diameter reduction, the second diameter reduction, and the period; and the earliest time out of the times for each of the measuring points of each of the wire ropes is displayed as rope replacement time. a non-contact rope diameter measuring device is provided at a predetermined position in an elevator shaft along a path of the wire ropes; at a first inspection time, each rope diameter is measured at multiple measuring points set along each wire rope as a car is raised and lowered; a diameter reduction for rope diameter against a reference diameter constituted by the diameter of the wire rope at a location that does not contact the drive sheave or by the nominal diameter of the wire rope at each measuring point is stored as a first diameter reduction; characterised in that at a second inspection time at a certain period after the first inspection time, rope diameter is again measured at each of the measuring points of each of the wire ropes as the car is raised and lowered; a diameter reduction for rope diameter against a reference diameter constituted by the diameter of the wire rope at a location that does not contact the drive sheave or by the nominal diameter of the wire rope at each measuring point is stored as a second diameter reduction; the time at which the diameter reduction at each of the measuring points of each of the wire ropes will reach a predetermined threshold value is determined on the basis of the first diameter reduction, the second diameter reduction, and the period; and the earliest time out of the times for each of the measuring points of each of the wire ropes is displayed as rope replacement time.
A method for transmitting data, comprising: determining, by a network device, a numerology for transmitting data and determining, by the network device, one target frequency band for transmitting the data, wherein the target frequency band comprises a transmission frequency band for transmitting the data and a guard tone; wherein determining, by the network device, the numerology for transmitting the data comprises: determining, by the network device, the numerology for transmitting the data from a plurality of predefined numerologies; sending, by the network device, configuration information to a terminal device, wherein the configuration information comprises the numerology and information of the target frequency band; and receiving, by the network device, the data sent by the terminal device on the transmission frequency band according to the numerology, or sending, by the network device, the data to the terminal device on the transmission frequency band according to the numerology; wherein, the guard tone is located at both a high-frequency end and a low-frequency end of the target band; wherein the bandwidth of the guard tone is an integer multiple of minimum subcarrier spacing supported by the network device; wherein the information of the target frequency band comprises a start position and an end position of the target frequency band and both start and end position of the part of the guard tone located at the low-frequency end and start and end position of the part of the guard tone located at the high-frequency end. determining, by a network device, a numerology for transmitting data and determining, by the network device, one target frequency band for transmitting the data, wherein the target frequency band comprises a transmission frequency band for transmitting the data and a guard tone; wherein determining, by the network device, the numerology for transmitting the data comprises: determining, by the network device, the numerology for transmitting the data from a plurality of predefined numerologies; sending, by the network device, configuration information to a terminal device, wherein the configuration information comprises the numerology and information of the target frequency band; and receiving, by the network device, the data sent by the terminal device on the transmission frequency band according to the numerology, or sending, by the network device, the data to the terminal device on the transmission frequency band according to the numerology; wherein, the guard tone is located at both a high-frequency end and a low-frequency end of the target band; wherein the bandwidth of the guard tone is an integer multiple of minimum subcarrier spacing supported by the network device; wherein the information of the target frequency band comprises a start position and an end position of the target frequency band and both start and end position of the part of the guard tone located at the low-frequency end and start and end position of the part of the guard tone located at the high-frequency end.
A method for forming a fibrin matrix comprising a fusion peptide, wherein the method comprises the steps of: i) providing a first component comprising fibrinogen or a fibrinogen precursor and a transglutaminase or a transglutaminase precursor; ii) providing a second component comprising thrombin or a thrombin precursor; wherein neither the first component nor the second component comprises a fusion peptide comprising a first domain and a covalently crosslinkable transglutaminase substrate domain in a second domain; iii) providing a third component comprising the fusion peptide, wherein the third component does not contain fibrinogen, a fibrinogen precursor thrombin, nor a thrombin precursor, and wherein the fusion peptide comprises PTH in the first domain; iv) mixing the first, second, and third components; wherein step (iv) is carried out in a time frame of not more than 5 days, preferably not more than 3 days, not more than 2 days, or during 1 day. i) providing a first component comprising fibrinogen or a fibrinogen precursor and a transglutaminase or a transglutaminase precursor; ii) providing a second component comprising thrombin or a thrombin precursor; wherein neither the first component nor the second component comprises a fusion peptide comprising a first domain and a covalently crosslinkable transglutaminase substrate domain in a second domain; iii) providing a third component comprising the fusion peptide, wherein the third component does not contain fibrinogen, a fibrinogen precursor thrombin, nor a thrombin precursor, and wherein the fusion peptide comprises PTH in the first domain; iv) mixing the first, second, and third components;
A toner, comprising: a colorant; a release agent; an amorphous polyester; and a crystalline polyester having an endothermic peak temperature of 60 to 80°C and an endothermic quantity of 5 to 15 J/g, the endothermic peak temperature determined from a constant rate component curve of the crystalline polyester obtained in a second heating of temperature-modulated differential scanning calorimetry, and the endothermic quantity determined from an area between the constant rate component curve and its base line drawn between 0 and 100°C, within a temperature range of 0 to 50°C. a colorant; a release agent; an amorphous polyester; and a crystalline polyester having an endothermic peak temperature of 60 to 80°C and an endothermic quantity of 5 to 15 J/g, the endothermic peak temperature determined from a constant rate component curve of the crystalline polyester obtained in a second heating of temperature-modulated differential scanning calorimetry, and the endothermic quantity determined from an area between the constant rate component curve and its base line drawn between 0 and 100°C, within a temperature range of 0 to 50°C.