mhurhangee/ep-ind-claims huggingface dataset:
An enameled heat-cooker including a non-stick ceramic coating layer, comprising: a body made of an iron and steel material; and a lower enamel layer and an upper enamel layer, which are formed on both surfaces of the body, respectively, wherein the upper enamel layer comprises a non-stick ceramic coating layer formed on the outer surface thereof, characterized in that the lower enamel layer and the upper enamel layer are coated with a glaze which consists of: 70-80 wt% of a mixture comprising 16-42 parts by weight of siliceous stone, 10-32 parts by weight of feldspar, 20-30 parts by weight of borax, 9-15 parts by weight of soda ash, 3-7 parts by weight of fluorite, 3-5 parts by weight of sodium acetate, 0.3-0.5 parts by weight of nickel oxide, and 0.4-0.6 parts by weight of cobalt oxide; and 20-30 wt% of water. a body made of an iron and steel material; and a lower enamel layer and an upper enamel layer, which are formed on both surfaces of the body, respectively, wherein the upper enamel layer comprises a non-stick ceramic coating layer formed on the outer surface thereof, characterized in that the lower enamel layer and the upper enamel layer are coated with a glaze which consists of: 70-80 wt% of a mixture comprising 16-42 parts by weight of siliceous stone, 10-32 parts by weight of feldspar, 20-30 parts by weight of borax, 9-15 parts by weight of soda ash, 3-7 parts by weight of fluorite, 3-5 parts by weight of sodium acetate, 0.3-0.5 parts by weight of nickel oxide, and 0.4-0.6 parts by weight of cobalt oxide; and 20-30 wt% of water.
An aerosol-generating device comprising: a housing comprising an end wall; a cavity arranged to removably receive an aerosol-generating article; an aperture at least partially defined by the housing, wherein the aperture extends through a first portion of the end wall and wherein the aperture is positioned at an end of the cavity for insertion of an aerosol-generating article into the cavity through the aperture; a cover element arranged for rotational movement with respect to the housing, wherein the cover element is rotatable between a closed position in which the cover element entirely covers the aperture and an open position in which the aperture is entirely uncovered and the cover element overlies a second portion of the end wall, wherein the cover element comprises a cover portion and a shaft portion extending orthogonally from the cover portion, wherein the cover portion is arranged to entirely cover the aperture when the cover element is in the closed position, and wherein the shaft portion is received within the housing; and a heater arranged to heat an aerosol-generating article when the aerosol-generating article is received within the cavity, wherein the heater comprises an electrical heater positioned within the cavity, and wherein the electrical heater is arranged to extend around an outer surface of an aerosol-generating article received within the cavity. a housing comprising an end wall; a cavity arranged to removably receive an aerosol-generating article; an aperture at least partially defined by the housing, wherein the aperture extends through a first portion of the end wall and wherein the aperture is positioned at an end of the cavity for insertion of an aerosol-generating article into the cavity through the aperture; a cover element arranged for rotational movement with respect to the housing, wherein the cover element is rotatable between a closed position in which the cover element entirely covers the aperture and an open position in which the aperture is entirely uncovered and the cover element overlies a second portion of the end wall, wherein the cover element comprises a cover portion and a shaft portion extending orthogonally from the cover portion, wherein the cover portion is arranged to entirely cover the aperture when the cover element is in the closed position, and wherein the shaft portion is received within the housing; and a heater arranged to heat an aerosol-generating article when the aerosol-generating article is received within the cavity, wherein the heater comprises an electrical heater positioned within the cavity, and wherein the electrical heater is arranged to extend around an outer surface of an aerosol-generating article received within the cavity.
A peptide composition comprising a formula of: GABP-L-SBP, wherein GABP is a glycopeptides antibiotic binding peptide of 6 to 50 amino acids comprising (i) a glycopeptide antibiotic binding domain of 6 to 30 amino acids and (ii) binding affinity for a glycopeptide antibiotic; wherein SBP is a surface binding peptide of 7 to 50 amino acids comprising (i) a surface binding domain of 7 to 30 amino acids and (ii) binding affinity for a surface material of a medical device; and wherein L is a linker between SBP and GABP wherein the peptide composition comprising the formula GABP-L-SBP comprises SEQ ID NO: 131. GABP-L-SBP, wherein GABP is a glycopeptides antibiotic binding peptide of 6 to 50 amino acids comprising (i) a glycopeptide antibiotic binding domain of 6 to 30 amino acids and (ii) binding affinity for a glycopeptide antibiotic; wherein SBP is a surface binding peptide of 7 to 50 amino acids comprising (i) a surface binding domain of 7 to 30 amino acids and (ii) binding affinity for a surface material of a medical device; and wherein L is a linker between SBP and GABP wherein the peptide composition comprising the formula GABP-L-SBP comprises SEQ ID NO: 131.
Base system, comprising a diffusion-open insulation plane which comprises a plurality of insulation elements, wherein the insulation elements can be connected to a base, and comprising a rear ventilation plane which has air spaces and spacing elements, and comprising a cladding plane which has a plurality of cladding elements, wherein the cladding elements have a two-dimensional shape and are connected to the spacing elements at the receiving section thereof, as well as comprising a drip-edge element which projects over at least the upper sides of the rear ventilation plane and the cladding plane by means of a projecting section, wherein a first opening cross section is formed between the drip-edge element and the upper sides of the cladding elements, and wherein a second opening cross section is formed on the lower side of the cladding elements, and wherein the air spaces are connected to the first opening cross section and the second opening cross section in an air-conducting manner, characterized in that the spacing elements are designed as adjusting screws and are positively connected to the insulation plane and axially adjustable when being turned, wherein the adjusting screws are axially screwed in sections into the insulation plane and wherein the adjusting screws have a receiving section.
A standing wave ratio measuring circuit comprising: an amplifier circuit for amplifying a transmission signal; a first circulator for outpouting the transmission signal amplified by the amplifier circuit in a direction of a transmission/reception antenna and to output a reception signal received by the transmission/reception antenna to a reception system; a traveling wave acquiring unit for acquiring the transmission signal before being input to the amplifier circuit as a traveling wave when a request to measure a standing wave ratio is detected; a traveling wave bypass for allowing the traveling wave acquired by the traveling wave acquiring unit to travel to the reception system while bypassing the amplifier circuit; a second circulator provided in the reception system which is for outputing the traveling wave bypassing the amplifier circuit through the traveling wave bypass in a direction of the first circulator; a control unit for controlling the amplifier circuit such that the traveling wave output from the second circulator travels in the direction of the transmission reception antenna via the first circulator; a reflected wave acquiring unit for acquiring a reflected wave, which is the traveling wave reflected in the vicinity of the transmission/reception antenna, at a location after the second circulator in the reception system; and a measuring circuit for measuring the standing wave ratio using the traveling wave acquired by the traveling wave acquiring unit and the reflected wave acquired by the reflected wave acquiring unit. an amplifier circuit for amplifying a transmission signal; a first circulator for outpouting the transmission signal amplified by the amplifier circuit in a direction of a transmission/reception antenna and to output a reception signal received by the transmission/reception antenna to a reception system; a traveling wave acquiring unit for acquiring the transmission signal before being input to the amplifier circuit as a traveling wave when a request to measure a standing wave ratio is detected; a traveling wave bypass for allowing the traveling wave acquired by the traveling wave acquiring unit to travel to the reception system while bypassing the amplifier circuit; a second circulator provided in the reception system which is for outputing the traveling wave bypassing the amplifier circuit through the traveling wave bypass in a direction of the first circulator; a control unit for controlling the amplifier circuit such that the traveling wave output from the second circulator travels in the direction of the transmission reception antenna via the first circulator; a reflected wave acquiring unit for acquiring a reflected wave, which is the traveling wave reflected in the vicinity of the transmission/reception antenna, at a location after the second circulator in the reception system; and a measuring circuit for measuring the standing wave ratio using the traveling wave acquired by the traveling wave acquiring unit and the reflected wave acquired by the reflected wave acquiring unit.
A method for producing briquettes from a waste material comprising the steps: - providing a waste material, which waste material comprises at least one metal and at least one organic material - mechanically preparing the waste material in a single or multiple stages and separating at least one first fraction from the waste material, - producing a briquette mixture containing the at least one first fraction, wherein the at least one first fraction has a calorific value of 0 MJ/kg to 30 MJ/kg, - adjusting a calorific value of the briquette mixture by varying at least the first fraction, - introducing the briquette mixture into a briquetting device and pressing the briquette mixture into briquettes, so that briquettes with a calorific value of 5 MJ/kg to 30 MJ/kg and with a copper content of 0.1 wt.% to 20 wt.% are produced, wherein briquettes with a defined content of reusable material, namely a defined copper content, are produced. - providing a waste material, which waste material comprises at least one metal and at least one organic material - mechanically preparing the waste material in a single or multiple stages and separating at least one first fraction from the waste material, - producing a briquette mixture containing the at least one first fraction, wherein the at least one first fraction has a calorific value of 0 MJ/kg to 30 MJ/kg, - adjusting a calorific value of the briquette mixture by varying at least the first fraction, - introducing the briquette mixture into a briquetting device and pressing the briquette mixture into briquettes, so that briquettes with a calorific value of 5 MJ/kg to 30 MJ/kg and with a copper content of 0.1 wt.% to 20 wt.% are produced, wherein briquettes with a defined content of reusable material, namely a defined copper content, are produced.
Apparatus for drying aggregates, such as sand, comprising a loading unit, for loading aggregates to be dried, a drying unit, for drying said aggregates loaded in said loading unit, and a storage and offload unit, arranged to draw said dried aggregates from said drying unit and offload the same, wherein said drying unit comprises a drying drum, having an internal volume, in which said aggregates to be dried are collected, mixing members of said aggregates contained in said drying drum, and heating means, for heating said internal volume of said drying drum, wherein said storage and offload unit comprises a storage hopper, in which the aggregate dried by said drying drum are contained, and an elevator member, such as a paddle wheel, adapted to draw from said drying drum a predefined amount of said aggregates, characterized in that the storage and offload unit further comprises heating resistors for heating said aggregates contained in said storage hopper, a transfer screw, arranged above said drying drum, arranged to receive said aggregates from said elevator member, and a cylinder, within which said transfer screw is arranged, having one or more openings on the side surface, arranged in correspondence with said storage hopper, such that said dried aggregates can fall by gravity into said storage hopper through said one or more openings.
Method for assigning network addresses for fans (3, 4, 5) in a network, each fan (3, 4, 5) having a unique serial number in a serial number memory and a network address in an adjustable network address memory, and wherein a control unit automatically assigns network addresses to a plurality of fans (3, 4, 5), wherein an identical start address is initially assigned as the network address to all fans and serial number requests with a serial number mask are sent to the start address, wherein the serial number mask consists of characters of the serial number alphabet as specific characters and wildcards as indeterminate characters, and the fans (3, 4, 5) respond to the serial number mask depending on their serial number, wherein the control unit assigns unique network addresses to the fans (3, 4, 5) depending on the responses and/or modifies the serial number mask for further serial number requests, the control unit assigning a unique network address to the fan (3, 4, 5) by means of an address assignment command on the basis of the received serial number when an error-free response is received, namely when exactly one fan (3, 4, 5) responds, in the case of an incorrectly received response, namely if a plurality of fans (3, 4, 5) respond simultaneously, sends a further serial number request with a modified serial number mask to the start address, the control unit converting the next undetermined character of the serial number mask provided with a wildcard character into a determined character provided with a character of the serial number alphabet in order of value, when there is no response, sends a further serial number request with a modified serial number mask to the start address, and, if the last character in the serial number alphabet is reached at the most valuable specific position of the serial number mask provided with a character of the serial number alphabet, and the serial number mask has only one specific position provided with a character of the serial number alphabet, terminates the method, wherein the control unit repeats the previous serial number request with the same serial number mask in order to recognize additional fans (3, 4, 5) matching in its serial number to the serial number mask, and assign unique network addresses to them when an error-free response is received after an assignment of a network address by means of an address assignment command, and wherein each fan (3, 4, 5) corresponding in its serial number to the specific characters of the serial number mask of the serial number request provided with a character of the serial number alphabet in the same locations, responds to the serial number request with its complete serial number and wherein the control unit increases the most valuable specific position of the serial number mask provided with a character of the serial number alphabet by a character of the serial number alphabet at no response.
A display data obtaining apparatus comprising a display data obtaining unit for obtaining display data based on an optical characteristic distribution of a subject, of two-dimensional form or three-dimensional form, generated by the display data obtaining apparatus which irradiates the subject with pulsed light, converts an acoustic wave generated from the subject irradiated with the pulsed light into a signal, and derives the optical characteristic distribution based on the signal, characterized in that the display data obtaining unit comprises: a data correction unit for obtaining second data of two-dimensional form or three-dimensional form as the display data by correcting first data, of two-dimensional form or three-dimensional form, regarding the optical characteristic distribution of the subject with spatial sensitivity distribution data, of two-dimensional form or three-dimensional form, specific to the display data obtaining apparatus.
Assembly comprising: - a partition wall secured to a vehicle body and placed between a cooling system and an apron; - a deflector comprising a structure positioned under the partition wall; characterized in that the deflector is provided with a claw hinged relative to the structure of the deflector, said claw being suitable for being inserted into an opening provided in the partition wall. - a partition wall secured to a vehicle body and placed between a cooling system and an apron; - a deflector comprising a structure positioned under the partition wall;
A combing machine having a machine frame and having at least one combing point and having a suction channel extending below the combing point in the machine frame and having a covering hood which is pivotably held on the machine frame and extends over the combing point, wherein the combing point comprises at least one nipper unit and a circular comb and a fixing comb and a feed cylinder as well as a pair of draw-off rollers, wherein the pair of draw-off rollers consists of a lower draw-off roller and an upper draw-off roller provided with a scraper, wherein the combing point is provided with a suction means, wherein the suction means is attached to the covering hood and is connected to the suction channel via a coupling.
A tubular assembly comprising: a tubular first member having an outer surface and an inner surface, the inner surface defining an innermost surface of the assembly; and a tubular second member surrounding the outer surface of the first member, wherein the second member comprises a foamed polyphenylene sulfide polymer material having a foamed density and a foamed thermal effusivity that is foamed from a mixture of an un-foamed polyphenylene sulfide polymer material having polymer chains that are branched or cross-linked and a foaming agent, the polyphenylene sulfide having an un-foamed density and an un-foamed thermal effusivity, wherein the foamed polyphenylene sulfide polymer material has an average cell diameter of at least 100 μm, wherein the foamed density is less than about 50% of the un-foamed density; and wherein the foamed thermal effusivity is less than about 50% of the unfoamed thermal effusivity. a tubular first member having an outer surface and an inner surface, the inner surface defining an innermost surface of the assembly; and a tubular second member surrounding the outer surface of the first member, wherein the second member comprises a foamed polyphenylene sulfide polymer material having a foamed density and a foamed thermal effusivity that is foamed from a mixture of an un-foamed polyphenylene sulfide polymer material having polymer chains that are branched or cross-linked and a foaming agent, the polyphenylene sulfide having an un-foamed density and an un-foamed thermal effusivity, wherein the foamed polyphenylene sulfide polymer material has an average cell diameter of at least 100 μm, wherein the foamed density is less than about 50% of the un-foamed density; and wherein the foamed thermal effusivity is less than about 50% of the unfoamed thermal effusivity.
A regulator, wherein one open end in a tubular path formed through a main body part is an inlet port of high-pressure fluid and the other open end thereof is an outlet port of pressure-reduced fluid, a pressure regulation chamber is arranged on an inner side of the inlet port in the path through a valve seat including a valve seated seat holding member which includes a valve seated seat on an inner side and in which a through hole in an axial direction of the path is formed, a piston pressure regulating valve including a pressure regulating valve body that has a leading end surface capable of being closely in contact with the valve seated seat and that includes a tubular communicating path with opened both ends, and a piston unit formed around an outer periphery, on a side of the outlet port in the path, of the pressure regulating valve body is biased in an outlet port direction in the path between the pressure regulation chamber and the outlet port in the path by a pressure regulating spring having a predetermined load and arranged slidably in the axial direction of the path in an atmosphere chamber provided coaxially in parallel with the pressure regulation chamber around the piston unit, and fluid regulated to intended pressure by controlling of fluid pressure in the pressure regulation chamber by a change in opening areas of the valve seated seat and the pressure regulating valve body due to balancing between a load by pressure of high-pressure fluid that is introduced from the inlet port, is introduced into the valve seated seat and the pressure regulation chamber, which is provided in such a manner as to face the valve seated seat, through the through hole formed in the valve seated seat holding member of the pressure regulating valve body, passes through the pressure regulating valve body in which the communicating path is formed, and affects the piston unit joined to the pressure regulating valve body and a load by the pressure regulating spring that affects the piston unit to an opposite side of the pressure regulation chamber is extracted from the outlet port, wherein the pressure regulating valve body closely in contact with the valve seated seat, and the piston unit that is formed around the outer periphery thereof and that affects the pressure regulating spring are formed separately, the two forming the piston pressure regulating valve, and the pressure regulating valve body inserted from the inlet port into the path and the piston unit inserted from the outlet port into the path are fit to each other in an intended axial direction position and subsequently fixed by at least one of press-fitting and welding, wherein an inner peripheral leading end, on a side of the valve seated seat, of the pressure regulating valve body is formed in a tapered shape enlarged toward a leading end direction.