mhurhangee/ep-ind-claims huggingface dataset:
A food processing system comprising: a heating unit comprising a heating mechanism for indirectly heating food and further comprising an air blowing mechanism; a cooling unit comprising a cooling mechanism for cooling the food that has been heated by the heating unit and further comprising an air blowing mechanism; and a transporting unit for transporting the food through the heating unit and the cooling unit, wherein the transporting unit comprises a through hole; wherein the heating mechanism is located below the transporting unit and a heat mediating substance is ejected downwards from the heating mechanism, and wherein the air blowing mechanism of the heating unit blows air in a direction that is not towards the food. a heating unit comprising a heating mechanism for indirectly heating food and further comprising an air blowing mechanism; a cooling unit comprising a cooling mechanism for cooling the food that has been heated by the heating unit and further comprising an air blowing mechanism; and a transporting unit for transporting the food through the heating unit and the cooling unit, wherein the transporting unit comprises a through hole; wherein the heating mechanism is located below the transporting unit and a heat mediating substance is ejected downwards from the heating mechanism, and wherein the air blowing mechanism of the heating unit blows air in a direction that is not towards the food.
Hollow profile of a frame filled with a thermally insulating material where the hollow profile is joined together such that the cavities of all frame sides are in fluid communication with one another and the hollow profile has sealable openings, wherein a) the sealable openings comprise a1) at least one opening in the lower profile, a2) at least one opening in the upper profile and a3) in each case at least one opening and opening in each case in the lateral profiles in the corner with the upper profile, characterized in that b) the thermally insulating material b1) is a pourable material which contains a silica and IR opacifiers and has a poured density of 100-200 g/l and b2) the silica is a pyrogenic silica whose surface is modified by reaction with organosilanes selected from the group consisting of R n -Si-X 4-n, R 3 Si-Y-SiR 3, R n Si n O n, (CH 3) 3 -Si-(O-Si (CH 3) 2) n -OH, HO-Si (CH 3) 2 -(O-Si (CH 3) 2) n -OH, where n = 1-8; R = -H, -CH 3, -C 2 H 5; X = -Cl, -Br; -OCH 3, -OC 2 H 5, -OC 3 H 8, Y= NH, 0 and b3) fills the hollow profile of the frame to an extent of at least 95%. a) the sealable openings comprise a1) at least one opening in the lower profile, a2) at least one opening in the upper profile and a3) in each case at least one opening and opening in each case in the lateral profiles in the corner with the upper profile, characterized in that a1) at least one opening in the lower profile, a2) at least one opening in the upper profile and a3) in each case at least one opening and opening in each case in the lateral profiles in the corner with the upper profile, b) the thermally insulating material b1) is a pourable material which contains a silica and IR opacifiers and has a poured density of 100-200 g/l and b2) the silica is a pyrogenic silica whose surface is modified by reaction with organosilanes selected from the group consisting of R n -Si-X 4-n, R 3 Si-Y-SiR 3, R n Si n O n, (CH 3) 3 -Si-(O-Si (CH 3) 2) n -OH, HO-Si (CH 3) 2 -(O-Si (CH 3) 2) n -OH, where n = 1-8; R = -H, -CH 3, -C 2 H 5; X = -Cl, -Br; -OCH 3, -OC 2 H 5, -OC 3 H 8, Y= NH, 0 and b3) fills the hollow profile of the frame to an extent of at least 95%. b1) is a pourable material which contains a silica and IR opacifiers and has a poured density of 100-200 g/l and b2) the silica is a pyrogenic silica whose surface is modified by reaction with organosilanes selected from the group consisting of R n -Si-X 4-n, R 3 Si-Y-SiR 3, R n Si n O n, (CH 3) 3 -Si-(O-Si (CH 3) 2) n -OH, HO-Si (CH 3) 2 -(O-Si (CH 3) 2) n -OH, where n = 1-8; R = -H, -CH 3, -C 2 H 5; X = -Cl, -Br; -OCH 3, -OC 2 H 5, -OC 3 H 8, Y= NH, 0 and b3) fills the hollow profile of the frame to an extent of at least 95%.
A protein selected from lebecetin and functional variants or fragments thereof for use in the treatment of an ocular neovascular disease, wherein said protein comprises: - a first subunit comprising, or consisting of, the amino acid sequence SEQ ID NO: 1 or SEQ ID NO: 2 or an amino acid sequence having at least 75% identity thereto, and - a second subunit comprising, or consisting of, the amino acid sequence SEQ ID NO: 3 or SEQ ID NO: 4, or an amino acid sequence having at least 75% identity thereto. - a first subunit comprising, or consisting of, the amino acid sequence SEQ ID NO: 1 or SEQ ID NO: 2 or an amino acid sequence having at least 75% identity thereto, and - a second subunit comprising, or consisting of, the amino acid sequence SEQ ID NO: 3 or SEQ ID NO: 4, or an amino acid sequence having at least 75% identity thereto.
A UV lamp having an axial dimension normal to a cross-section having a cross-sectional area with a ratio of the axial dimension to the cross-sectional area configured such that the UV lamp has a longitudinal shape, the UV lamp comprising: - a first axial conductor separated from a second axial conductor by an electrically insulating material, at least one of the first axial conductor and the second axial conductor defining an outer surface, - a light emitting diode capable of providing light at a wavelength in the range of 100 nm to 400 nm, the LED having a first electrical terminal electrically connected to the first axial conductor and a second electrical terminal connected to the second axial conductor; wherein the LED is mounted to emit light from the outer surface, and wherein the UV lamp further comprises an axial hollow interior, an inlet opening and an outlet opening in the outer surface adapted to allow fluid communication from the inlet opening to the outlet opening via the hollow interior, and a flushing arrangement adapted to provide a fluid to the inlet opening. - a first axial conductor separated from a second axial conductor by an electrically insulating material, at least one of the first axial conductor and the second axial conductor defining an outer surface, - a light emitting diode capable of providing light at a wavelength in the range of 100 nm to 400 nm, the LED having a first electrical terminal electrically connected to the first axial conductor and a second electrical terminal connected to the second axial conductor; wherein the LED is mounted to emit light from the outer surface, and wherein the UV lamp further comprises an axial hollow interior, an inlet opening and an outlet opening in the outer surface adapted to allow fluid communication from the inlet opening to the outlet opening via the hollow interior, and a flushing arrangement adapted to provide a fluid to the inlet opening.
A method of preparing a conductive material dispersed liquid, comprising: mixing a conductive material which includes bundle-type carbon nanotubes; a dispersant; and a dispersion medium, and then milling such that a phase angle is in a range of 3° to 18° when measured by a rheometer at a frequency of 1 Hz, wherein the milling is performed using a bead mill having an average diameter of 0.5 to 2 mm for 60 to 120 minutes. mixing a conductive material which includes bundle-type carbon nanotubes; a dispersant; and a dispersion medium, and then milling such that a phase angle is in a range of 3° to 18° when measured by a rheometer at a frequency of 1 Hz, wherein the milling is performed using a bead mill having an average diameter of 0.5 to 2 mm for 60 to 120 minutes.
A molded article constructed of a resin composition comprising: a thermoplastic resin comprising a polyamide resin; cellulose nanofibers with an average fiber diameter of 1000 nm or smaller; and a metal ion component wherein the metal ion component is a metal halide, wherein the thermoplastic resin has a number average molecular weight of in the range of 10,000 to 150,000, and wherein the resin composition has a thixotropic index of 2 to 10 at a temperature of 25°C higher than the melting point of the thermoplastic resin. a thermoplastic resin comprising a polyamide resin; cellulose nanofibers with an average fiber diameter of 1000 nm or smaller; and a metal ion component wherein the metal ion component is a metal halide, wherein the thermoplastic resin has a number average molecular weight of in the range of 10,000 to 150,000, and wherein the resin composition has a thixotropic index of 2 to 10 at a temperature of 25°C higher than the melting point of the thermoplastic resin.
A plasma generation device for generating plasma upstream of a purification catalyst that purifies exhaust gas of an engine in an exhaust passage provided with the purification catalyst, comprising: a passage formation member arranged upstream of the purification catalyst in the exhaust passage, and formed with an internal passage that the exhaust gas passes through; and a plasma generation part that generates the plasma in the internal passage, wherein an outlet part of the internal passage of the passage formation member is located in the vicinity of or in abutting contact with the purification catalyst so that the exhaust gas flowing through the internal passage causes the plasma generated by the plasma generation part to blow out from the outlet of the internal passage to reach the purification catalyst; characterized in that the plasma generation part generates the plasma by emitting an electromagnetic wave to the internal passage, and the internal passage of the passage formation member is provided with electrically-conducting mesh members for trapping the electromagnetic wave emitted by the plasma generation part in a region in which the plasma is generated. a passage formation member arranged upstream of the purification catalyst in the exhaust passage, and formed with an internal passage that the exhaust gas passes through; and a plasma generation part that generates the plasma in the internal passage, wherein an outlet part of the internal passage of the passage formation member is located in the vicinity of or in abutting contact with the purification catalyst so that the exhaust gas flowing through the internal passage causes the plasma generated by the plasma generation part to blow out from the outlet of the internal passage to reach the purification catalyst; characterized in that the plasma generation part generates the plasma by emitting an electromagnetic wave to the internal passage, and the internal passage of the passage formation member is provided with electrically-conducting mesh members for trapping the electromagnetic wave emitted by the plasma generation part in a region in which the plasma is generated.
Braking device for braking the rear portion of a flat element in sheet form when said latter is displaced by being pulled by means of its front portion, said braking device comprising at least one suction hole which communicates with an exhaust orifice via an air circulation duct, as well as principal compressed air injection means which, in each circulation duct and in the direction of the corresponding exhaust orifice, are able to generate a principal pulsed air flow capable, by means of the Venturi effect, of generating a braking suction air flow through the corresponding suction hole, characterized in that said braking device furthermore comprises secondary compressed air injection means which are suitable for generating, in each circulation duct and in the direction of the corresponding exhaust orifice, a secondary pulsed air flow capable, by means of the Venturi effect, of generating a cleaning suction air flow through the corresponding suction hole.
A graft comprising: a biological graft; an embroidered textile that supports the biological graft; and sutures that attached the biological graft and the embroidered textile together at an attachment location, wherein the attachment location is located at a corner of o the biological graft and a corner of the embroidered textile, characterised in that the graft has a first width at a first end region, a second width at a second end region, and a length extending between the first end region and the second end region, and the first width is greater than the second width, and wherein the first end region and the second end region of the embroidered textile are each reinforced relative to a remainder of the embroidered textile to define a o reinforced portion, and the reinforced portion is formed by a thicker yarn or by a denser weave than the remainder of the embroidered textile. a biological graft; an embroidered textile that supports the biological graft; and sutures that attached the biological graft and the embroidered textile together at an attachment location, wherein the attachment location is located at a corner of o the biological graft and a corner of the embroidered textile, characterised in that the graft has a first width at a first end region, a second width at a second end region, and a length extending between the first end region and the second end region, and the first width is greater than the second width, and wherein the first end region and the second end region of the embroidered textile are each reinforced relative to a remainder of the embroidered textile to define a o reinforced portion, and the reinforced portion is formed by a thicker yarn or by a denser weave than the remainder of the embroidered textile.
A production method of glycolic acid, which comprises: a first step of obtaining glycolonitrile from formaldehyde and hydrocyanic acid, a second step of hydrolyzing the glycolonitrile into a glycolate salt, and a third step of obtaining glycolic acid from the glycolate salt, wherein the first step and the second step are performed as a continuous process. a first step of obtaining glycolonitrile from formaldehyde and hydrocyanic acid, a second step of hydrolyzing the glycolonitrile into a glycolate salt, and a third step of obtaining glycolic acid from the glycolate salt, wherein the first step and the second step are performed as a continuous process.
A method of forming a security device, the method comprising: providing a substrate comprising an array of plasmonic nanostructures; providing a first array of sampling elements over the substrate; and irradiating one or more regions of the array of plasmonic nanostructures through the first array of sampling elements with electromagnetic radiation so as to modify the geometry of the plasmonic nanostructures in the one or more regions and thereby modify the optical response of the array of plasmonic nanostructures in the one or more regions; wherein said one or more regions define an array of image elements configured for viewing through an array of sampling elements such that an optically variable effect is exhibited by the array of sampling elements and the array of image elements in combination in dependence upon the viewing angle. providing a substrate comprising an array of plasmonic nanostructures; providing a first array of sampling elements over the substrate; and irradiating one or more regions of the array of plasmonic nanostructures through the first array of sampling elements with electromagnetic radiation so as to modify the geometry of the plasmonic nanostructures in the one or more regions and thereby modify the optical response of the array of plasmonic nanostructures in the one or more regions; wherein said one or more regions define an array of image elements configured for viewing through an array of sampling elements such that an optically variable effect is exhibited by the array of sampling elements and the array of image elements in combination in dependence upon the viewing angle.
An electronic device comprising: a first housing including two sides; a second housing including two sides and being rotatably coupled to a coupling edge of the first housing, the second housing being rotatable between an open configuration and a closed configuration with respect to the first housing; a receiving portion formed in a rear surface of the first housing, the receiving portion _comprising a recess configured to receive the second housing; a concealment cover coupled to the rear surface of the first housing, wherein the concealment cover is positioned exteriorly to the second housing, wherein when the second housing is in the receiving portion, each side of the second housing is co-terminal with a corresponding side of the first housing; a display housed in the first housing and facing a front surface of the first housing; a keyboard housed in the second housing and exposed at the front of the second housing when the second housing is in the open configuration; wherein in the closed configuration, a rear of the second housing faces the rear surface of the first housing, and a front of the second housing is covered by the concealment cover; and wherein in the open configuration the front of the second housing is exposed and the concealment cover is rotated such that it forms an acute angle with respect to the receiving portion of the first housing. a first housing including two sides; a second housing including two sides and being rotatably coupled to a coupling edge of the first housing, the second housing being rotatable between an open configuration and a closed configuration with respect to the first housing; a receiving portion formed in a rear surface of the first housing, the receiving portion _comprising a recess configured to receive the second housing; a concealment cover coupled to the rear surface of the first housing, wherein the concealment cover is positioned exteriorly to the second housing, wherein when the second housing is in the receiving portion, each side of the second housing is co-terminal with a corresponding side of the first housing; a display housed in the first housing and facing a front surface of the first housing; a keyboard housed in the second housing and exposed at the front of the second housing when the second housing is in the open configuration; wherein in the closed configuration, a rear of the second housing faces the rear surface of the first housing, and a front of the second housing is covered by the concealment cover; and wherein in the open configuration the front of the second housing is exposed and the concealment cover is rotated such that it forms an acute angle with respect to the receiving portion of the first housing.
Exhaust gas heating assembly for an exhaust gas system of an internal combustion engine, comprising a heating unit housing through which exhaust gas can flow and a plurality of heating units arranged in the heating unit housing and elongated in the direction of a heating unit longitudinal axis, each having a first heating unit longitudinal end region and a second heating unit longitudinal end region, wherein the heating units are supported in their first heating unit longitudinal end regions and their second heating unit longitudinal end regions by means of a support structure with respect to the heating unit housing, wherein at least one heating unit comprises a jacket elongated in the direction of the heating unit longitudinal axis, characterized in that the at least one heating unit with a jacket elongated in the direction of the heating unit longitudinal axis comprises a heating conductor element in the jacket and a heat transfer formation on an outer side of the jacket, and in that at least one heating unit with a jacket elongated in the direction of the longitudinal axis of the heating unit is supported on the support structure with its first longitudinal end region of the heating unit and/or its second longitudinal end region of the heating unit so as to be movable in the longitudinal direction of the heating unit.
A curing agent for a casting water glass comprising an alcohol, an ester, an amorphous silica and water; wherein the amorphous silica is a pyrogenic amorphous silica and/or a precipitated amorphous silica; characterized in that the curing agent comprises 20-40% of the ester; 30-60% of the amorphous silica; 2-12% of the alcohol; and 3-18% of water by mass fraction; and the alcohol is selected from the group consisting of ethanol and benzyl alcohol.
An aerosol generating apparatus comprising: a power source; a load configured to have an electric resistance value that varies according to a temperature and atomize an aerosol source or heat a flavor source when supplied with power from the power source; a sensor configured to output a measurement value corresponding to a current value of a current flowing through the load; and control means for controlling power supply from the power source to the load and performing a determination operation for determining that there is an abnormality if the measurement value becomes smaller than a threshold value within a determination period that is included, on a time axis, in a feeding sequence during which power is supplied from the power source to the load, wherein the control means adjusts a length of the determination period based on the measurement value. a power source; a load configured to have an electric resistance value that varies according to a temperature and atomize an aerosol source or heat a flavor source when supplied with power from the power source; a sensor configured to output a measurement value corresponding to a current value of a current flowing through the load; and control means for controlling power supply from the power source to the load and performing a determination operation for determining that there is an abnormality if the measurement value becomes smaller than a threshold value within a determination period that is included, on a time axis, in a feeding sequence during which power is supplied from the power source to the load, wherein the control means adjusts a length of the determination period based on the measurement value.
Control network comprising: a first node associated with at least one device (208b-214b) in a control system, a second node associated with at least one device (208b-214b) in the control system, wherein the first node is configured to wirelessly transmit information for substantially simultaneous transfer over at least two pathways to the second node, wherein the first and second nodes are safety nodes and the control system is a safety system, and wherein at least one of the at least two pathways is through at least a third node that comprises a relay node that serves to relay messages, characterized in that the information is transferred over the at least two pathways with different protocols. a first node associated with at least one device (208b-214b) in a control system, a second node associated with at least one device (208b-214b) in the control system, wherein the first node is configured to wirelessly transmit information for substantially simultaneous transfer over at least two pathways to the second node, wherein the first and second nodes are safety nodes and the control system is a safety system, and wherein at least one of the at least two pathways is through at least a third node that comprises a relay node that serves to relay messages, characterized in that the information is transferred over the at least two pathways with different protocols.