mhurhangee/ep-ind-claims huggingface dataset:
A safety shoe having a sole construction which comprises an inner sole, a penetration-resistant safety sole, a lower outer sole part and an air pump device, wherein the penetration-resistant safety sole is arranged between the lower outer sole part and the inner sole, wherein the air pump device is formed either by a cavity recessed in the lower outer sole part in the heel region or separately as an independent entity and is completely or partially embedded in a cavity in the lower outer sole part in the heel region; an air supply device which is connected to said air pump device via a first one-way valve which allows air to pass only in the direction to the air pump device, wherein the air supply device is provided at a heel part of the safety shoe; and an air removal device which is connected to the air pump device and which is configured to conduct air from the air pump device to an air distribution device which is connected to the air removal device, the air removal device comprising a second one-way valve which allows air to pass only in the direction from the air pump device to the air distribution device, the air distribution device being positioned above the inner sole inside the safety shoe in a protective toe cap in front of the toe region and is configured to conduct air into the inside of the shoe; and wherein the inner sole, the lower outer sole part and the air pump device are configured in such a manner that by removing a load from the sole construction during a walking movement by a wearer, air can be drawn in by the air supply device from outside the safety shoe and above the inner sole into the air pump device and by applying a load to the sole construction during the walking movement of the wearer, air can be expelled by the air removal device into the inside of the safety shoe and the air pump device can thereby be compressed by a pump volume corresponding to the amount of air that can be expelled, wherein the pump volume is at least 5 ml.
A probiotic strain selected from Lactobacillus reuteri V3401 with accession number CECT 8605 and Bifidobacterium breve BT820 with accession number CECT 8606.
An electronic device, comprising: a display which displays an image; a graph graphic detection unit which detects a graph graphic matching any of predetermined graph shapes in the image; a graph rendering unit which renders a graph overlapping the graph graphic which is detected by the graph graphic detection unit; a length input line segment designation unit which designates any one of line segments included in the image as a line segment subject to length input based on a user's operation; a line segment length input unit which inputs a length of the line segment subject to length input based on a user's operation; a point of origin setting unit which sets a point of origin of a coordinate system in the image according to a position and a shape of the graph; a display range calculation unit which calculates a display range of the coordinate system which is to be set so as to superimpose on the image based on the length of the line segment subject to length input; and a graph equation calculation unit which calculates a graph equation of the graph and displays a calculation result in the display based on the display range. a display which displays an image; a graph graphic detection unit which detects a graph graphic matching any of predetermined graph shapes in the image; a graph rendering unit which renders a graph overlapping the graph graphic which is detected by the graph graphic detection unit; a length input line segment designation unit which designates any one of line segments included in the image as a line segment subject to length input based on a user's operation; a line segment length input unit which inputs a length of the line segment subject to length input based on a user's operation; a point of origin setting unit which sets a point of origin of a coordinate system in the image according to a position and a shape of the graph; a display range calculation unit which calculates a display range of the coordinate system which is to be set so as to superimpose on the image based on the length of the line segment subject to length input; and a graph equation calculation unit which calculates a graph equation of the graph and displays a calculation result in the display based on the display range.
Laser source apparatus, being configured for generating temporal dissipative cavity solitons, comprising: - an input source device, being configured for providing an input light field as a periodic pulse train of laser pulses being temporally separated from each other by a finite interval, and - an optical resonator device comprising an optical micro-resonator having an optical path length equal to or below 1 cm and a third order optical Kerr non-linearity and being coupled with the input source device for generating the cavity solitons by the driving input light field, characterized in that - the input source device comprises an amplitude modulated cw laser source or a phase-modulated cw laser source, - the input source device is controllable in pulse repetition rate and carrier envelope offset frequency, such that the optical modes of the laser pulses are adapted to resonant modes of the resonator, - an input control device is provided for controlling the pulse repetition rate and the carrier envelope offset frequency of the input source device, and - a sensor device is arranged for sensing parameters of the cavity solitons and for monitoring a state of soliton generation. - an input source device, being configured for providing an input light field as a periodic pulse train of laser pulses being temporally separated from each other by a finite interval, and - an optical resonator device comprising an optical micro-resonator having an optical path length equal to or below 1 cm and a third order optical Kerr non-linearity and being coupled with the input source device for generating the cavity solitons by the driving input light field, - the input source device comprises an amplitude modulated cw laser source or a phase-modulated cw laser source, - the input source device is controllable in pulse repetition rate and carrier envelope offset frequency, such that the optical modes of the laser pulses are adapted to resonant modes of the resonator, - an input control device is provided for controlling the pulse repetition rate and the carrier envelope offset frequency of the input source device, and - a sensor device is arranged for sensing parameters of the cavity solitons and for monitoring a state of soliton generation.
A composition comprising (i) 3-difluoromethyl-1-methyl-1 H-pyrazole-4-carboxylic acid (2-bicyclopropyl-2-yl-phenyl)-amide; (ii) cyprodinil and (iii) an unsaturated C18-fatty acid selected from oleic acid, linoleic acid and linolenic acid.
An encoding method comprising steps of: encoding image data to generate a bitstream; generating delay time information (ST2, ST3, ST4, ST5); transmitting the bit stream in said encoding step; and characterized in that the delay time information indicates an initial delay time (i_d,) from providing the bitstream to a receiver buffer (D_BUF) until reading the bitstream from the receiver buffer (D_BUF) that the delay time information further indicates a further delay time (d, d, d, d) for each frame (f, f,...) in a group of data (G, G) included in the bitstream, wherein the further delay time (d, d, d, d) indicates a time interval from reading of a previous frame (f,f,...) to a current frame (f,f,...) from the receiver buffer (D_BUF); comprising determining a data amount of a final frame data (f) belonging to the group (G) to be processed to remain stored in a receiver buffer (D_BUF) stored at timing of starting to write a first frame (f) on the decoding order of a subsequent group (G) to be processed to the receiver buffer (D_BUF); and that the transmitting step comprises transmitting the delay time information generated in said generating step (ST2, ST3, ST4, ST5). encoding image data to generate a bitstream; generating delay time information (ST2, ST3, ST4, ST5); transmitting the bit stream in said encoding step; and characterized in that the delay time information indicates an initial delay time (i_d,) from providing the bitstream to a receiver buffer (D_BUF) until reading the bitstream from the receiver buffer (D_BUF) that the delay time information further indicates a further delay time (d, d, d, d) for each frame (f, f,...) in a group of data (G, G) included in the bitstream, wherein the further delay time (d, d, d, d) indicates a time interval from reading of a previous frame (f,f,...) to a current frame (f,f,...) from the receiver buffer (D_BUF); comprising determining a data amount of a final frame data (f) belonging to the group (G) to be processed to remain stored in a receiver buffer (D_BUF) stored at timing of starting to write a first frame (f) on the decoding order of a subsequent group (G) to be processed to the receiver buffer (D_BUF); and that the transmitting step comprises transmitting the delay time information generated in said generating step (ST2, ST3, ST4, ST5).
Turbine blade for a turbomachine having a turbine blade wall in which is formed at least one fluid passage through which a cooling fluid can flow from a cold gas side to a surface over which hot gas flows, i.e. the hot gas side of the turbine blade wall, and wherein the at least one fluid passage on its end region which points toward the cold gas side has an inflow passage, on its end region which points toward the hot gas side of the turbine blade wall has an outflow passage section, and between the inflow passage section and the outflow passage section has a central passage section with a circular or oval cross section which is constant over the length and which defines a longitudinal axis of the fluid passage which with the surface of turbine blade wall over which hot gas flows includes an acute angle, wherein between the inflow passage section and the central passage section the fluid passage has an intermediate passage section which has a larger cross-sectional area than the central passage section, wherein - the central passage section adjoins the intermediate passage section forming a shoulder face which lies between them and perpendicularly to the longitudinal axis of the fluid passage, or - that a shoulder face, which lies in a plane which is inclined to the longitudinal axis of the fluid passage by an angle of α ≠ 90°, is formed in the transition region between the intermediate passage section and the central passage section, wherein the shoulder face is formed on a wall region of the fluid passage, characterized in that on the wall region opposite the shoulder face the intermediate passage section and the central passage section merge into each other in a straight line, i.e. without a shoulder being formed. - the central passage section adjoins the intermediate passage section forming a shoulder face which lies between them and perpendicularly to the longitudinal axis of the fluid passage, or - that a shoulder face, which lies in a plane which is inclined to the longitudinal axis of the fluid passage by an angle of α ≠ 90°, is formed in the transition region between the intermediate passage section and the central passage section, wherein the shoulder face is formed on a wall region of the fluid passage, characterized in that
A surface acoustic wave device having at least a diamond film arranged to increase the surface acoustic wave propagation velocity, a piezoelectric-material film, and an electrode on a base material, wherein: all or at least a surface of the diamond film consists of an electroconductive diamond in which a dopant is doped, an electrical resistivity of the electroconductive diamond is 10 13 Ω•cm or less at 20°C, and the electrical resistivity of the piezoelectric-material film is 10 14 Ω•cm or less at 20°C. all or at least a surface of the diamond film consists of an electroconductive diamond in which a dopant is doped, an electrical resistivity of the electroconductive diamond is 10 13 Ω•cm or less at 20°C, and the electrical resistivity of the piezoelectric-material film is 10 14 Ω•cm or less at 20°C.
A communications outlet including: eight outlet tines (T1-T8) positioned adjacent to one another and defining four pairs of outlet tines, the fourth and fifth outlet tines defining a first pair, the first and second outlet tines defining a second pair, the third and sixth outlet tines defining a third pair, and the seventh and eighth outlet tines defining a fourth pair, each outlet tine having a free end near which a plug tine is adapted to contact the outlet tine and each outlet tine having a fixed end coupled through a corresponding conductive tine to a corresponding electrical contact; and a first internal crosstalk compensation stage having a flexible printed circuit board (502; 1202) with a plurality of conductive fingers (F1-F4; F1'-F8'), each conductive finger being physically connected to a corresponding one of the outlet tines (T1-T8) proximate the free ends of the tines, the first internal crosstalk compensation stage operable to provide positive compensation for internal crosstalk between pairs corresponding to the tines to which the conductive fingers (F1-F4; F1'-F8') of the flexible printed circuit board (502; 1202) are connected; wherein the flexible printed circuit board (502; 1202) includes a plurality of capacitive components (C1-C6) formed on the flexible printed circuit board (502; 1202) and connected through the conductive fingers (F1-F4; F1'-F4') to the conductive tines (T1-T8). eight outlet tines (T1-T8) positioned adjacent to one another and defining four pairs of outlet tines, the fourth and fifth outlet tines defining a first pair, the first and second outlet tines defining a second pair, the third and sixth outlet tines defining a third pair, and the seventh and eighth outlet tines defining a fourth pair, each outlet tine having a free end near which a plug tine is adapted to contact the outlet tine and each outlet tine having a fixed end coupled through a corresponding conductive tine to a corresponding electrical contact; and a first internal crosstalk compensation stage having a flexible printed circuit board (502; 1202) with a plurality of conductive fingers (F1-F4; F1'-F8'), each conductive finger being physically connected to a corresponding one of the outlet tines (T1-T8) proximate the free ends of the tines, the first internal crosstalk compensation stage operable to provide positive compensation for internal crosstalk between pairs corresponding to the tines to which the conductive fingers (F1-F4; F1'-F8') of the flexible printed circuit board (502; 1202) are connected; wherein the flexible printed circuit board (502; 1202) includes a plurality of capacitive components (C1-C6) formed on the flexible printed circuit board (502; 1202) and connected through the conductive fingers (F1-F4; F1'-F4') to the conductive tines (T1-T8).
A refrigerator appliance comprising: a rear wall; first and second side walls secured to and extending from the rear wall; a bottom wall secured to a bottom end of the rear wall and to the first and second side walls at positions above bottom ends of the first and second side walls such that the bottom wall and the first and second side walls define a cavity below the bottom wall and such that the bottom wall and the first and second side walls define a front opening to the cavity on an opposing side of the cavity relative to the rear wall, wherein the rear wall, first and second side walls, and the bottom wall collectively define a compartment above the bottom wall, wherein the compartment houses a condenser, and wherein an exterior surface of the rear wall defines an air inlet vent to the compartment and an air outlet vent from the compartment; a vertically extending partition wall secured the exterior surface and disposed between the air inlet vent and the air outlet vent, wherein the vertically extending partition wall is configured to segregate an airflow into the air inlet vent from an airflow out of the air outlet vent along the exterior surface; and characterized by a horizontally extending partition wall (76; 82) extending from a bottom end of the vertically extending partition wall, wherein the horizontally extending partition wall (76; 82) is configured to segregate at least a portion of an airflow within the cavity from the air outlet vent. a rear wall; first and second side walls secured to and extending from the rear wall; a bottom wall secured to a bottom end of the rear wall and to the first and second side walls at positions above bottom ends of the first and second side walls such that the bottom wall and the first and second side walls define a cavity below the bottom wall and such that the bottom wall and the first and second side walls define a front opening to the cavity on an opposing side of the cavity relative to the rear wall, wherein the rear wall, first and second side walls, and the bottom wall collectively define a compartment above the bottom wall, wherein the compartment houses a condenser, and wherein an exterior surface of the rear wall defines an air inlet vent to the compartment and an air outlet vent from the compartment; a vertically extending partition wall secured the exterior surface and disposed between the air inlet vent and the air outlet vent, wherein the vertically extending partition wall is configured to segregate an airflow into the air inlet vent from an airflow out of the air outlet vent along the exterior surface; and characterized by a horizontally extending partition wall (76; 82) extending from a bottom end of the vertically extending partition wall, wherein the horizontally extending partition wall (76; 82) is configured to segregate at least a portion of an airflow within the cavity from the air outlet vent.
A cooling system for cooling a heat source, the cooling system comprising: a monolithic structure comprising a plurality of embedded cooling channels arranged in a multi-planar arrangement, the embedded cooling channels configured to carry a cooling fluid to a plurality of locations throughout the monolithic structure, the cooling fluid configured to absorb heat transferred from a heat source associated with the monolithic structure; wherein the monolithic structure is formed integrally with the embedded cooling channels using an additive manufacturing process; and wherein at least some of the embedded cooling channels form a multiple helix. a monolithic structure comprising a plurality of embedded cooling channels arranged in a multi-planar arrangement, the embedded cooling channels configured to carry a cooling fluid to a plurality of locations throughout the monolithic structure, the cooling fluid configured to absorb heat transferred from a heat source associated with the monolithic structure; wherein the monolithic structure is formed integrally with the embedded cooling channels using an additive manufacturing process; and wherein at least some of the embedded cooling channels form a multiple helix.
System for generating energy in a working fluid from hydrogen and oxygen, comprising a burner for combustion of hydrogen and oxygen into steam provided with a feed for oxygen and a feed for hydrogen, a boiler operably connected to the burner for heating the working fluid having a feed for introducing the working fluid and a discharge for discharging heated working fluid and a heat exchanging surface for heat exchange between the steam and the working fluid, a condenser for condensing steam and separating oxygen operably connected to the boiler downstream thereof, wherein at least one recirculation loop (32; 55, 57) is provided for recirculation of reaction products of the combustion of hydrogen and oxygen downstream of the boiler to the burner, and a recovery loop for recycling excess oxygen separated in the condenser to the feed of oxygen of the burner. a burner for combustion of hydrogen and oxygen into steam provided with a feed for oxygen and a feed for hydrogen, a boiler operably connected to the burner for heating the working fluid having a feed for introducing the working fluid and a discharge for discharging heated working fluid and a heat exchanging surface for heat exchange between the steam and the working fluid, a condenser for condensing steam and separating oxygen operably connected to the boiler downstream thereof, wherein at least one recirculation loop (32; 55, 57) is provided for recirculation of reaction products of the combustion of hydrogen and oxygen downstream of the boiler to the burner, and a recovery loop for recycling excess oxygen separated in the condenser to the feed of oxygen of the burner.
A solid electrolyte material consisting essentially of Li, Ti, M, and F, wherein M is Al, the solid electrolyte material is represented by a following composition formula: Li 6-(4-x)b (Ti 1-x M x) b F 6 Formula here, 0 < x < 1 and 0.8 ≤ b ≤ 1.5 are satisfied. M is Al, the solid electrolyte material is represented by a following composition formula: Li 6-(4-x)b (Ti 1-x M x) b F 6 Formula here, 0 < x < 1 and 0.8 ≤ b ≤ 1.5 are satisfied.
A masking foil for a shaving cartridge comprising: a front side; a back side; a pair of lateral sides; at least one ribbon extending along a top side of the masking foil between the front side and the back side; and a first securing portion located at one of the pair of lateral sides; characterised in that the first securing portion comprises a cross-member extending along the top side of the masking foil between the front side and the back side, and at least two securing elements extending laterally outwardly from the cross-member. a front side; a back side; a pair of lateral sides; at least one ribbon extending along a top side of the masking foil between the front side and the back side; and a first securing portion located at one of the pair of lateral sides; characterised in that the first securing portion comprises a cross-member extending along the top side of the masking foil between the front side and the back side, and at least two securing elements extending laterally outwardly from the cross-member.
A consumer good product comprising: (a) a composition comprising or consisting of a mixture of: (i) chitin nanofibrils; (ii) lignin or a derivative thereof; and (iii) optionally, at least one polymer or co-polymer; and (b) at least one consumer goods ingredient. (a) a composition comprising or consisting of a mixture of: (i) chitin nanofibrils; (ii) lignin or a derivative thereof; and (iii) optionally, at least one polymer or co-polymer; and (i) chitin nanofibrils; (ii) lignin or a derivative thereof; and (iii) optionally, at least one polymer or co-polymer; and (b) at least one consumer goods ingredient.
A method of treating a fibrous substrate, the method comprising applying a fluorine-free treating composition in an amount sufficient to make the fibrous substrate water repellent, wherein the treating composition comprises: at least one polycarbodiimide compound derived from a carbodiimidization reaction of a carbodiimidization reaction mixture comprising at least one oligomer, wherein the oligomer comprises at least one isocyanate end group and at least two repeating units, wherein each of the at least two repeating units comprises at least one hydrocarbon group having at least 16 carbon atoms.