mhurhangee/patent-ind-claim-en huggingface dataset:
A radiation grill apparatus comprising a housing having opposing sides and a food support member on said housing, the housing comprising: an infrared radiation source arrangement along one of said opposing sides only and arranged to direct a portion of said infrared radiation onto the food support member such as to create a heat distribution across the food support member; a drip collection member facing the food support member; and a reflector arrangement arranged to redirect a further portion of said infrared radiation onto the food support member; characterized in that , the said reflector arrangement comprises a first parabolic reflector arranged to redirect part of said further portion of infrared radiation towards an end region (i0, i1) of the food support member distal to the infrared radiation source arrangement ; and said reflector arrangement further comprises a further parabolic reflector arranged adjacent to an end point of the first reflector distal to said food support member , said further parabolic reflector being arranged to redirect part of said further portion of infrared radiation towards a central region (i2) of the food support member . an infrared radiation source arrangement along one of said opposing sides only and arranged to direct a portion of said infrared radiation onto the food support member such as to create a heat distribution across the food support member; a drip collection member facing the food support member; and a reflector arrangement arranged to redirect a further portion of said infrared radiation onto the food support member; characterized in that , the said reflector arrangement comprises a first parabolic reflector arranged to redirect part of said further portion of infrared radiation towards an end region (i0, i1) of the food support member distal to the infrared radiation source arrangement ; and said reflector arrangement further comprises a further parabolic reflector arranged adjacent to an end point of the first reflector distal to said food support member , said further parabolic reflector being arranged to redirect part of said further portion of infrared radiation towards a central region (i2) of the food support member .
A cell comprising an exogenous deoxyribonucleic acid (DNA) sequence encoding a preimplantation factor (PIF) peptide, wherein the PIF peptide consists of the sequence of MX 1 RIKPX 2 X 3 A, wherein X 1 , X 2 and X 3 are independently any amino acid, provided that said PIF peptide is not SEQ ID NO: 1, wherein the cell is obtained by a method of modifying the cell to express the exogenous DNA.
Method for manufacturing an ornament made of precious metal, comprising at least the steps of: - providing a sheet or plate or foil of pure precious metal; - tracing the profile of a desired shape; - cutting said sheet or plate or foil according to said profile in order to obtain said ornament having said desired shape, the method being characterized in that , - said sheet or plate or foil is made of a precious metal with a fineness equal to or greater than 999 parts per thousand, and that said sheet, plate or foil is obtained by: - melting the precious metal in the crucible and successively casting in a mold; - rolling the metal thus obtained in a rolling machine; thanks to rolling, the metal becomes harder and less ductile and malleable; - eliminating irregularities present in the sheet, plate or foil, by means of a new passage through the rolling machine, but in a reverse direction and by processing with cross-strokes. - providing a sheet or plate or foil of pure precious metal; - tracing the profile of a desired shape; - cutting said sheet or plate or foil according to said profile in order to obtain said ornament having said desired shape, the method being characterized in that , - said sheet or plate or foil is made of a precious metal with a fineness equal to or greater than 999 parts per thousand, - melting the precious metal in the crucible and successively casting in a mold; - rolling the metal thus obtained in a rolling machine; thanks to rolling, the metal becomes harder and less ductile and malleable; - eliminating irregularities present in the sheet, plate or foil, by means of a new passage through the rolling machine, but in a reverse direction and by processing with cross-strokes.
A conveyor configured to convey a granular material to a downstream device , the conveyor comprising: a casing having a conveying path therein and having a discharge port (S2) for discharging the granular material to the downstream device; a plurality of conveying units accommodated in the casing and configured to convey the granular material to the discharge port by circulating along the conveying path; an opening/closing mechanism configured to open and close the discharge port; and characterized in that it comprises a control unit configured to control operation of the plurality of conveying units and the opening/closing mechanism, wherein when restricting supply of the granular material to the downstream device, the control unit is configured to control the opening/closing mechanism to close the discharge port, and continue to circulate the plurality of conveying units, thereby continuing to move the granular material along the conveying path. a casing having a conveying path therein and having a discharge port (S2) for discharging the granular material to the downstream device; a plurality of conveying units accommodated in the casing and configured to convey the granular material to the discharge port by circulating along the conveying path; an opening/closing mechanism configured to open and close the discharge port; and characterized in that it comprises a control unit configured to control operation of the plurality of conveying units and the opening/closing mechanism, wherein when restricting supply of the granular material to the downstream device, the control unit is configured to control the opening/closing mechanism to close the discharge port, and continue to circulate the plurality of conveying units, thereby continuing to move the granular material along the conveying path.
A method of acquiring a marine seismic survey , comprising: depositing on a seafloor a line of cable sections extending in a first direction, the line of cable sections having a first end and a second end and comprising a plurality of cable sections aligned end-to-end, the line of cable sections including a plurality of seismic wavefield receivers ; moving the line of cable sections by collecting cable sections from the second end of the line and depositing cable sections at the first end of the line so that the line of cable sections travels in the first direction; and using at least one source vessel to provide acoustical waveforms while the line of cable sections is moving, the acoustical waveforms received by the plurality of seismic wavefield receivers in the line of cable sections so as to enable generation of a seismic survey. depositing on a seafloor a line of cable sections extending in a first direction, the line of cable sections having a first end and a second end and comprising a plurality of cable sections aligned end-to-end, the line of cable sections including a plurality of seismic wavefield receivers ; moving the line of cable sections by collecting cable sections from the second end of the line and depositing cable sections at the first end of the line so that the line of cable sections travels in the first direction; and using at least one source vessel to provide acoustical waveforms while the line of cable sections is moving, the acoustical waveforms received by the plurality of seismic wavefield receivers in the line of cable sections so as to enable generation of a seismic survey.
A process for recycling thermoplastic polymer material to produce polymer preform, the process comprising the steps of: (i) pre-treating a polymer material by separating, sorting, cleaning, drying and/or shaping; (ii) shredding the pre-treated polymer to produce polymer flakes; (iii) processing the polymer material to produce a pre-form, wherein the thermoplastic polymer material comprises one or more thermoplastic polymers, selected from high density polyethylene, low density polyethylene, polypropylene and polyethylene terephthalate, characterised in that prior to the step (iii) of producing the pre-form, the polymer flakes are compacted to form pellets, in which the compaction step is carried out using a disk agglomerator, wherein the temperature of the material being processed in the compaction step reaches 80°C to 160°C, and in which the compacted pellets are at least partially crystallized. (i) pre-treating a polymer material by separating, sorting, cleaning, drying and/or shaping; (ii) shredding the pre-treated polymer to produce polymer flakes; (iii) processing the polymer material to produce a pre-form, wherein the thermoplastic polymer material comprises one or more thermoplastic polymers, selected from high density polyethylene, low density polyethylene, polypropylene and polyethylene terephthalate, characterised in that prior to the step (iii) of producing the pre-form, the polymer flakes are compacted to form pellets, in which the compaction step is carried out using a disk agglomerator, wherein the temperature of the material being processed in the compaction step reaches 80°C to 160°C, and in which the compacted pellets are at least partially crystallized.
A climatization container comprising: a compartment for storing products ; a duct ; a fan configured to draw air from the compartment into the duct ; a cooling system including an evaporator located in the duct ; and at least one air guide located in the duct ; the climatization container further comprising an outer shell at least partially surrounding the compartment such that the duct is defined between a wall of the compartment and the outer shell wherein the fan is located in the duct on a first side of the evaporator and a vent between the duct and the compartment is located on a second, opposite side of the evaporator such that air from the compartment flows between the fan and the vent over a surface of the evaporator ; wherein the evaporator is narrower than the duct in a plane defined by a surface of the evaporator, the air guide directing air drawn from the compartment such that it passes over a surface of the evaporator ; and characterized in that the air guide closes off a volume of the duct to prevent air flow between the fan and the vent from passing through that volume. a compartment for storing products ; a duct ; a fan configured to draw air from the compartment into the duct ; a cooling system including an evaporator located in the duct ; and at least one air guide located in the duct ; the climatization container further comprising an outer shell at least partially surrounding the compartment such that the duct is defined between a wall of the compartment and the outer shell wherein the fan is located in the duct on a first side of the evaporator and a vent between the duct and the compartment is located on a second, opposite side of the evaporator such that air from the compartment flows between the fan and the vent over a surface of the evaporator ; wherein the evaporator is narrower than the duct in a plane defined by a surface of the evaporator, the air guide directing air drawn from the compartment such that it passes over a surface of the evaporator ; and characterized in that the air guide closes off a volume of the duct to prevent air flow between the fan and the vent from passing through that volume.
A reading device , comprising: a camera that acquires an image by imaging an object; and a scanner that emits a light beam towards the object in a scanning manner to emit a scanning light having a prescribed scanning angle range in a one-dimensional prescribed direction, and that detects the scanning light reflected by the object so as to acquire a target information displayed on a surface of the object, an emission direction of the scanning light being changeable characterized in that the reading device further comprising a processor that performs: determining whether or not the surface of the object and an optical axis of the camera are perpendicular to each other; when the surface of the object and the optical axis of the camera are determined to be perpendicular to each other, acquiring distance information indicating a distance from the camera to the object; and causing the scanner to change the emission direction of the scanning light in accordance with the acquired distance information such that a center line of the prescribed scanning angle range of the scanning light and the optical axis of the camera intersect with each other on the surface of the object. a camera that acquires an image by imaging an object; and a scanner that emits a light beam towards the object in a scanning manner to emit a scanning light having a prescribed scanning angle range in a one-dimensional prescribed direction, and that detects the scanning light reflected by the object so as to acquire a target information displayed on a surface of the object, an emission direction of the scanning light being changeable characterized in that the reading device further comprising a processor that performs: determining whether or not the surface of the object and an optical axis of the camera are perpendicular to each other; when the surface of the object and the optical axis of the camera are determined to be perpendicular to each other, acquiring distance information indicating a distance from the camera to the object; and causing the scanner to change the emission direction of the scanning light in accordance with the acquired distance information such that a center line of the prescribed scanning angle range of the scanning light and the optical axis of the camera intersect with each other on the surface of the object. determining whether or not the surface of the object and an optical axis of the camera are perpendicular to each other; when the surface of the object and the optical axis of the camera are determined to be perpendicular to each other, acquiring distance information indicating a distance from the camera to the object; and causing the scanner to change the emission direction of the scanning light in accordance with the acquired distance information such that a center line of the prescribed scanning angle range of the scanning light and the optical axis of the camera intersect with each other on the surface of the object.
Mobile communication network for routing data of at least one mobile communication device of a user supporting data communication in at least two categories of data, a first category of data comprising machine-to-machine data and a second category of data comprising user data, wherein the mobile communication network comprises a first gateway server configured to establish a data connection for transmitting data between the mobile communication device and a machine-to-machine service center , and a second gateway server configured to establish a data connection for transmitting user data between the mobile communication device and a data network , wherein the mobile communication network further comprises a proxy server configured to receive from the mobile communication device a request for establishing a data connection for transmitting data and to check whether the mobile communication device belongs to a predetermined group of mobile communication devices, and wherein the proxy server is configured to determine whether the data comprises data of the first or second category and to forward the request to the first gateway server in case it is determined that the data comprises data of the first category or to the second gateway server in case it is determined that the data comprises data of the second category, if the proxy server has determined that the mobile communication device belongs to the predetermined group of mobile communication devices, and the proxy server is configured to forward the request to the first gateway server independent of the category of the data, if the proxy server has determined that the mobile communication device does not belong the predetermined group.
A method for producing ethylene oxide, the method comprising: supplying a raw material gas including ethylene, molecular oxygen, and a chlorine compound to an ethylene oxidation reactor; subjecting the ethylene and the molecular oxygen in the raw material gas to catalytic vapor phase oxidation in the ethylene oxidation reactor in the presence of a silver catalyst, and thereby producing a gas including ethylene oxide, water, and a chlorine compound; and cooling a gas to be cooled including the water and the chlorine compound using a heat exchanger, wherein in the heat exchanger, the gas to be cooled is cooled at a linear gas velocity on the heat exchanger inner tube side of 7 m/s or higher. supplying a raw material gas including ethylene, molecular oxygen, and a chlorine compound to an ethylene oxidation reactor; subjecting the ethylene and the molecular oxygen in the raw material gas to catalytic vapor phase oxidation in the ethylene oxidation reactor in the presence of a silver catalyst, and thereby producing a gas including ethylene oxide, water, and a chlorine compound; and cooling a gas to be cooled including the water and the chlorine compound using a heat exchanger, wherein in the heat exchanger, the gas to be cooled is cooled at a linear gas velocity on the heat exchanger inner tube side of 7 m/s or higher.
Method for transferring at least one component portion (2 - 4) of an at least partially undercut injection molded plastic component from a first state, in which the at least one component portion (2 - 4) has a geometric deviation from a component-specific reference state to a second state, in which the at least one component portion (2 - 4) has no geometric deviation from the reference state, wherein in the component-specific reference state the at least one component portion (2 - 4) and the plastic component , respectively fulfil component-specific geometric tolerances, characterized in that the geometric deviation in the first state of the at least one component portion (2 - 4) results from removing the plastic component from an injection molding tool, wherein the method comprises: using an apparatus comprising an actuation device comprising at least one first actuation element (7a - 7c) configured to exert a transfer force to the plastic component ; and exerting with the at least one first actuation element (7a - 7c) a transfer force to the plastic component having the at least one component portion (2 - 4) in the first state so as to transfer the at least one component portion (2 - 4) from the first state to the second state.
A compound represented by Formula (I), or a pharmaceutically acceptable salt thereof, wherein R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , R 10 , R 11 , R 12 , and R 13 are each independently hydrogen, or deuterium; and R 1 , and R 2 are deuterium. wherein R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , R 10 , R 11 , R 12 , and R 13 are each independently hydrogen, or deuterium; and R 1 , and R 2 are deuterium.
A dental treatment apparatus that is configured to energize a dental treatment site with a high-frequency current, the dental treatment apparatus comprising: a holder configured to hold an electrode that can be placed at the dental treatment site; a power supply configured to energize the electrode with the high-frequency current; a detector configured to detect a current value with which the electrode is energized by the power supply ; and a controller configured to cause, based on the current value detected by the detector , the power supply to control a current value of the high-frequency current with which the electrode is energized, wherein the controller is configured to cause, based on the current value detected by the detector , the power supply to bring the current value of the high-frequency current with which the electrode is energized within a predetermined range. a holder configured to hold an electrode that can be placed at the dental treatment site; a power supply configured to energize the electrode with the high-frequency current; a detector configured to detect a current value with which the electrode is energized by the power supply ; and a controller configured to cause, based on the current value detected by the detector , the power supply to control a current value of the high-frequency current with which the electrode is energized, wherein the controller is configured to cause, based on the current value detected by the detector , the power supply to bring the current value of the high-frequency current with which the electrode is energized within a predetermined range.
A non-graphitizable carbon material, characterized in that the non-graphitizable carbon material fulfills the condition of a specific surface area ratio (BET/CALC) of 5.5 or less, wherein the specific surface area ratio (BET/CALC) is a ratio of a specific surface area (BET) (unit: m 2 /g) calculated by a BET method using adsorption of nitrogen gas to a specific surface area (CALC) (unit: m 2 /g) calculated by the expression "6/(D x ρ)", where D represents an average particle diameter (unit: pm) and ρ represents an absolute specific gravity (unit: g/cm 3 ), which is determined by a liquid displacement method with a pycnometer using butanol in accordance with JIS R 7222, and wherein the average particle diameter of the non-graphitizable carbon material lies in a range of 1 - 15 μm.
A method for preparing a polysiloxane resin - polyolefin copolymer comprising: 1) combining starting materials comprising: A) a polyolefin having a silicon bonded hydrogen functional group of formula where each R 1 is an independently selected monovalent hydrocarbon group and subscript a is 1 or 2; B) a polysiloxane resin having, per molecule, at least one silicon bonded group reactive with silicon bonded hydrogen of starting material A); and C) a catalyst. 1) combining starting materials comprising: A) a polyolefin having a silicon bonded hydrogen functional group of formula where each R 1 is an independently selected monovalent hydrocarbon group and subscript a is 1 or 2; B) a polysiloxane resin having, per molecule, at least one silicon bonded group reactive with silicon bonded hydrogen of starting material A); and C) a catalyst. A) a polyolefin having a silicon bonded hydrogen functional group of formula where each R 1 is an independently selected monovalent hydrocarbon group and subscript a is 1 or 2; B) a polysiloxane resin having, per molecule, at least one silicon bonded group reactive with silicon bonded hydrogen of starting material A); and C) a catalyst.
A method of manufacturing a sole structure for an article of footwear , the sole structure configured to be attached to an upper of the article of footwear , the method comprising: providing a plate within a cavity of a mold, the plate including a base and a rib , the base including a first surface and a second surface , the first surface configured to face the upper , the second surface facing away from the first surface , the rib projecting from the second surface of the base ; providing a preform bladder member within the cavity of the mold, the preform bladder member including a first member and a second member ; forming a bladder from the first member and the second member using the mold, the bladder including an interior chamber configured to contain a fluid; and attaching the first member to the plate using the mold, wherein attaching the first member to the plate includes shaping the first member according to surfaces of the rib .