mhurhangee/patent-ind-claim-en huggingface dataset:
Procedure for the provision of an access key for a field device used in automation engineering, wherein said device is to be enabled using an access key that is entered, wherein the access key regulates access to the field device , particularly to its parameters, wherein said procedure comprises the following steps: - Generation of an individual key for the field device - Storage of the individual key in a database , wherein an identification attribute of the field device is additionally saved in the database together with the individual key , - Storage of the individual key in the field device ; - Determination of at least the identification attribute of the field device for which the access key is to be made available; - Formation/creation/generation of the access key in such a way that the key at least comprises a hash value , wherein the hash value is formed at least from the individual key read out of the database using the identification attribute that has been determined; and - Transmission of the access key to the field device . - Generation of an individual key for the field device - Storage of the individual key in a database , wherein an identification attribute of the field device is additionally saved in the database together with the individual key , - Storage of the individual key in the field device ; - Determination of at least the identification attribute of the field device for which the access key is to be made available; - Formation/creation/generation of the access key in such a way that the key at least comprises a hash value , wherein the hash value is formed at least from the individual key read out of the database using the identification attribute that has been determined; and - Transmission of the access key to the field device .
A self-powered switch, comprising: a control panel (15, 15A-15D) arranged to generate a wireless control signal; a switch panel (12, 12A-12D) arranged to be actuated to generate a mechanical energy; and a micro generator (14, 14A-14D) operatively linked to said switch panel, wherein said micro generator comprises a magnet assembly (144, 144A-144D) and a coil assembly which are arranged to be moved in relation to each other to transform said mechanical energy into an electrical energy for powering said control panel so as to activate said control panel in a batteryless manner, characterized in that said control panel comprises a signal generator for generating the wireless control signal, an energy storage operatively linked to said micro generator for storing the electrical energy generated by said micro generator and a rectifier operatively linked to said energy storage for rectifying the electrical energy stored in said energy storage to usable energy for said signal generator, wherein said control panel further comprises an inductor (L), and said energy storage comprises a first capacitor (C1) and a second capacitor (C2), and the rectifier is operated to repeatedly charge and discharge said energy storage via said inductor to prolong the operation time to be larger than 6 ms.
Process for the synthesis of dimethyl ether (DME) from a feedstock comprising H 2 and CO x , wherein x = 1 - 2, comprising: (a) subjecting the gaseous mixture comprising synthesis gas originating from step (c) to DME synthesis by contacting it with a catalyst capable of converting synthesis gas to DME to obtain a gaseous mixture comprising DME; (b) subjecting a gaseous mixture comprising the gaseous mixture originating from step (a) to a separation-enhanced reverse water gas shift reaction; and (c) subjecting the gaseous mixture originating from step (b) to DME/synthesis gas separation to obtain DME and a gaseous mixture comprising synthesis gas, which is recycled to step (a), wherein the feedstock is introduced in step (a) or step (b) and wherein the molar ratio of H 2 to CO x in the gaseous mixture which is subjected to step (b) is at least ( x + 0.8). (a) subjecting the gaseous mixture comprising synthesis gas originating from step (c) to DME synthesis by contacting it with a catalyst capable of converting synthesis gas to DME to obtain a gaseous mixture comprising DME; (b) subjecting a gaseous mixture comprising the gaseous mixture originating from step (a) to a separation-enhanced reverse water gas shift reaction; and (c) subjecting the gaseous mixture originating from step (b) to DME/synthesis gas separation to obtain DME and a gaseous mixture comprising synthesis gas, which is recycled to step (a),
A laundry treating apparatus comprising: a drum rotatably provided inside the laundry treating apparatus for storing laundry; and a connector (C) connecting the drum to a motor for transferring a rotation power to the drum , the connector (C) comprising: a rotary shaft (S); a first body having a first body hub fixed to the drum , and at least one first body arm extending from the first body hub radially outwards; a second body having a second body hub fixed to the rotary shaft (S), and at least one second body arm extending from the second body hub radially outwards corresponding to the at least one first body arm ; and connecting portions connecting the first body with the second body so that the first body is spaced apart from the second body , characterized in that the connecting portions are spaced apart from each other along the longitudinal direction of the first body arm to allow water to pass therebetween. a drum rotatably provided inside the laundry treating apparatus for storing laundry; and a connector (C) connecting the drum to a motor for transferring a rotation power to the drum , the connector (C) comprising: a rotary shaft (S); a first body having a first body hub fixed to the drum , and at least one first body arm extending from the first body hub radially outwards; a second body having a second body hub fixed to the rotary shaft (S), and at least one second body arm extending from the second body hub radially outwards corresponding to the at least one first body arm ; and connecting portions connecting the first body with the second body so that the first body is spaced apart from the second body , characterized in that the connecting portions are spaced apart from each other along the longitudinal direction of the first body arm to allow water to pass therebetween. a rotary shaft (S); a first body having a first body hub fixed to the drum , and at least one first body arm extending from the first body hub radially outwards; a second body having a second body hub fixed to the rotary shaft (S), and at least one second body arm extending from the second body hub radially outwards corresponding to the at least one first body arm ; and connecting portions connecting the first body with the second body so that the first body is spaced apart from the second body , characterized in that the connecting portions are spaced apart from each other along the longitudinal direction of the first body arm to allow water to pass therebetween.
A medical instrument, in particular endoscopic instrument , with a proximal handle for controlling a distal tool, concerning which the handle comprises two grip pieces which are arranged in a pivotably movable manner relative to one another, are subjected to spring force and are coupled in movement to one another via a path guide , wherein the path guide comprises a path component which comprises a guide path , and a guide body on a guide component , said guide body engaging into the guide path , wherein the components are arranged on the grip pieces and are subjected to spring force to one another transversely to a pivoting plane of the grip pieces , one of the components is pivotably arranged on a grip piece and at least one latching position, in which the pivoting movement of the grip pieces is blocked in one direction, is formed between the components , characterised in that in a manner which is functionally independent of the guide body and guide path , a latching body and at least one latching receiver which receives the latching body in a latching position are provided on the components for the latching function.
A device , comprising: a hinge mechanism rotatably coupling a first portion of the device to a second portion of the device , wherein the hinge mechanism comprises a spring for providing the force necessary to automatically open the device ; a damper configured to control a rate at which the hinge mechanism automatically opens the device ; and wherein the hinge mechanism includes a hinge disposed between the first portion and the second portion to connect the first portion and the second portion , characterised in that the hinge mechanism comprises a spine covering the hinge and a side covering at each side of the device to close off the area between the hinge and the spine , and wherein the side covering is a bellows. a damper configured to control a rate at which the hinge mechanism automatically opens the device ; and wherein the hinge mechanism includes a hinge disposed between the first portion and the second portion to connect the first portion and the second portion , characterised in that the hinge mechanism comprises a spine covering the hinge and a side covering at each side of the device to close off the area between the hinge and the spine , and wherein the side covering is a bellows.
Method for controlling the texture of a culinary preparation made with a culinary apparatus arranged for mixing ingredients said preparation, said culinary apparatus comprising: - a container arranged to receive the ingredients of said preparation, - a tool arranged to rotatably evolve inside said container in order to mix said ingredients, - a motor arranged to rotate the tool in the container , - a control interface of the motor, said method comprising the following steps: - placing all of the ingredients of the preparation in the container or the solid ingredients of the preparation in the container or also the solid ingredients of the preparation and a portion of the liquid ingredients of the preparation in the container , - (S2) operating the motor using the control interface according to a first operating mode (F1) in which the ingredients are mixed in the container , - (S3) operating the motor according to a second operating mode (F2) suitable for estimating the viscosity (Vest) of all or a portion of the culinary preparation present in the container , - (S4) estimating the viscosity (Vest) of all or some of the culinary preparation present in the container , characterised in that the method comprises the step: - (S5) of displaying on a display device information (INF) representative of the texture of the culinary preparation present in the container . - a container arranged to receive the ingredients of said preparation, - a tool arranged to rotatably evolve inside said container in order to mix said ingredients, - a motor arranged to rotate the tool in the container , - a control interface of the motor, - placing all of the ingredients of the preparation in the container or the solid ingredients of the preparation in the container or also the solid ingredients of the preparation and a portion of the liquid ingredients of the preparation in the container , - (S2) operating the motor using the control interface according to a first operating mode (F1) in which the ingredients are mixed in the container , - (S3) operating the motor according to a second operating mode (F2) suitable for estimating the viscosity (Vest) of all or a portion of the culinary preparation present in the container , - (S4) estimating the viscosity (Vest) of all or some of the culinary preparation present in the container , characterised in that the method comprises the step: - (S5) of displaying on a display device information (INF) representative of the texture of the culinary preparation present in the container .
An imaging system , comprising: a radiation source configured to emit X-ray radiation; a detector array configured to detected X-ray radiation and generate projection data indicative thereof, wherein the projection data includes a plurality of views; a first processing chain configured to reconstruct the projection data and generate a noise only image; and wherein the first processing chain includes a projection data processor configured to multiply the views by a predetermined multiplication factor and produce pre-processed projection data, wherein the predetermined multiplication factor multiplies every other view of the pre-processed projection data by negative one, and wherein the predetermined multiplication factor multiplies remaining views of the pre-processed projection data by positive one; wherein the first processing chain further includes a rebinning processor configured to rebin the pre-processed projection data to parallel beam format, and further includes a reconstruction processor configured to reconstruct the rebinned pre-processed projection data to generate the noise only image. a radiation source configured to emit X-ray radiation; a detector array configured to detected X-ray radiation and generate projection data indicative thereof, wherein the projection data includes a plurality of views; a first processing chain configured to reconstruct the projection data and generate a noise only image; and wherein the first processing chain includes a projection data processor configured to multiply the views by a predetermined multiplication factor and produce pre-processed projection data, wherein the predetermined multiplication factor multiplies every other view of the pre-processed projection data by negative one, and wherein the predetermined multiplication factor multiplies remaining views of the pre-processed projection data by positive one; wherein the first processing chain further includes a rebinning processor configured to rebin the pre-processed projection data to parallel beam format, and further includes a reconstruction processor configured to reconstruct the rebinned pre-processed projection data to generate the noise only image.
A frame for a photovoltaic module, comprising: a top support portion , a bottom support portion , a transverse edge portion , a first side edge portion , a second side edge portion , a third side edge portion , and a weather-resistant protective layer including an alloy plating layer or an organic film layer, wherein the weather-resistant protective layer includes a first weather-resistant protective layer which covers an outer surface of at least one of the top support portion , the bottom support portion , the first side edge portion , the second side edge portion or the transverse edge portion ; wherein the top support portion , the second side edge portion and the transverse edge portion enclose a holding slot configured to hold the photovoltaic module; the top support portion has a bearing surface facing the holding slot and configured to support a photovoltaic panel, the bottom support portion is arranged opposite to the top support portion , and the transverse edge portion is located at one side of the top support portion away from the bottom support portion ; the first side edge portion and the third side edge portion connect the top support portion and the bottom support portion ; the third side edge portion , the first side edge portion , the top support portion and the bottom support portion enclose a closed cavity ; and wherein the frame is formed from a carbon steel sheet material by a cold roll forming process; characterized in that the weather-resistant protective layer further includes a second weather-resistant protective layer which covers only a surface of the first side edge portion facing the third side edge portion and a surface of the third side edge portion facing the first side edge portion . wherein the top support portion , the second side edge portion and the transverse edge portion enclose a holding slot configured to hold the photovoltaic module; the top support portion has a bearing surface facing the holding slot and configured to support a photovoltaic panel, the bottom support portion is arranged opposite to the top support portion , and the transverse edge portion is located at one side of the top support portion away from the bottom support portion ; the first side edge portion and the third side edge portion connect the top support portion and the bottom support portion ; the third side edge portion , the first side edge portion , the top support portion and the bottom support portion enclose a closed cavity ; and wherein the frame is formed from a carbon steel sheet material by a cold roll forming process; characterized in that the weather-resistant protective layer further includes a second weather-resistant protective layer which covers only a surface of the first side edge portion facing the third side edge portion and a surface of the third side edge portion facing the first side edge portion .
A method of transmitting a packet over a radio channel in a mobile communication system, the method performed by a transmitting apparatus and comprising: receiving, by a data part construction unit , one or more radio link control packet data units, RLC PDUs , through one or more logical channels from an upper layer comprising one or more RLC entities; generating , by a header insertion unit , a media access control packet data unit, MAC PDU, that includes the RLC PDUs; and transmitting, by a transceiver , the generated MAC PDU over the radio channel to a receiving apparatus, wherein generating the MAC PDU comprises: inserting , into a header of the MAC PDU, a first information field mapped to one among a predetermined set of sizes, to indicate a size of the RLC PDU if the RLC PDU is from a specific RLC entity related to a specific service. receiving, by a data part construction unit , one or more radio link control packet data units, RLC PDUs , through one or more logical channels from an upper layer comprising one or more RLC entities; generating , by a header insertion unit , a media access control packet data unit, MAC PDU, that includes the RLC PDUs; and transmitting, by a transceiver , the generated MAC PDU over the radio channel to a receiving apparatus, wherein generating the MAC PDU comprises: inserting , into a header of the MAC PDU, a first information field mapped to one among a predetermined set of sizes, to indicate a size of the RLC PDU if the RLC PDU is from a specific RLC entity related to a specific service.
A neutron source comprising an enclosure containing a central ampoule placed coaxially inside the enclosure ; wherein antimony is contained in the central ampoule wherein beryllium is located between the central ampoule and the enclosure ; wherein the central ampoule is made of an alloy that does not react with the antimony during the process of antimony filling and operation of the neutron source; wherein the central ampoule is made of a niobium-based alloy; wherein the beryllium located between the central ampoule and the enclosure is beryllium powder with particle size of 60-200 μm, the beryllium powder forming a beryllium powder bed and the porosity of the beryllium powder bed is 45%. a central ampoule placed coaxially inside the enclosure ; wherein antimony is contained in the central ampoule wherein beryllium is located between the central ampoule and the enclosure ; wherein the central ampoule is made of an alloy that does not react with the antimony during the process of antimony filling and operation of the neutron source; wherein the central ampoule is made of a niobium-based alloy; wherein the beryllium located between the central ampoule and the enclosure is beryllium powder with particle size of 60-200 μm, the beryllium powder forming a beryllium powder bed and the porosity of the beryllium powder bed is 45%.
An image pickup apparatus, comprising: image pickup means having an image pickup surface formed thereon from pixels arranged in a matrix for outputting a result of image pickup of an optical image formed on the image pickup surface; motion detection means for detecting a motion amount in the result of the image pickup for each of blocks into which the image pickup surface is divided in a horizontal direction and/or a vertical direction; characterized by : control means for controlling exposure time of said image pickup means individually for each of the blocks based on the respective motion amount detected by said motion detection means; and signal level correction means for correcting and outputting, for each of the blocks, a signal level of the result of the image pickup by increasing an amplification gain by an amount corresponding to the amount of the respective reduction of the exposure time. image pickup means having an image pickup surface formed thereon from pixels arranged in a matrix for outputting a result of image pickup of an optical image formed on the image pickup surface; motion detection means for detecting a motion amount in the result of the image pickup for each of blocks into which the image pickup surface is divided in a horizontal direction and/or a vertical direction; characterized by : control means for controlling exposure time of said image pickup means individually for each of the blocks based on the respective motion amount detected by said motion detection means; and signal level correction means for correcting and outputting, for each of the blocks, a signal level of the result of the image pickup by increasing an amplification gain by an amount corresponding to the amount of the respective reduction of the exposure time. control means for controlling exposure time of said image pickup means individually for each of the blocks based on the respective motion amount detected by said motion detection means; and signal level correction means for correcting and outputting, for each of the blocks, a signal level of the result of the image pickup by increasing an amplification gain by an amount corresponding to the amount of the respective reduction of the exposure time.
A method of performing nucleic acid sequence determination, the method comprising: (a) providing a surface that is passivated, wherein the surface comprises (i) at least one hydrophilic polymer coating layer adjacent to the surface, wherein said at least one hydrophilic polymer coating layer comprises polyethylene glycol (PEG) and (ii) a plurality of oligonucleotide molecules coupled to the at least one hydrophilic polymer coating layer, wherein at least one discrete region of the surface comprises a plurality of sample nucleic acid molecules hybridized to the plurality of oligonucleotide molecules, and wherein the plurality of sample nucleic acid molecules is present at a density of at least 10,000/mm 2 of the surface; (b) performing at least a nucleotide binding reaction or a nucleotide incorporation reaction with a nucleotide that is labeled with a detectable tag and a sample nucleic acid molecule of the plurality of sample nucleic acid molecules, and (c) amplifying the plurality of sample nucleic acid molecules hybridized to the plurality of oligonucleotide molecules. (a) providing a surface that is passivated, wherein the surface comprises (i) at least one hydrophilic polymer coating layer adjacent to the surface, wherein said at least one hydrophilic polymer coating layer comprises polyethylene glycol (PEG) and (ii) a plurality of oligonucleotide molecules coupled to the at least one hydrophilic polymer coating layer, wherein at least one discrete region of the surface comprises a plurality of sample nucleic acid molecules hybridized to the plurality of oligonucleotide molecules, and wherein the plurality of sample nucleic acid molecules is present at a density of at least 10,000/mm 2 of the surface; (b) performing at least a nucleotide binding reaction or a nucleotide incorporation reaction with a nucleotide that is labeled with a detectable tag and a sample nucleic acid molecule of the plurality of sample nucleic acid molecules, and (c) amplifying the plurality of sample nucleic acid molecules hybridized to the plurality of oligonucleotide molecules.
Polymer foam particles containing at least one blowing agent selected from the group of air, nitrogen and carbon dioxide and 25 to 320 parts by mass of polyethylene terephthalate per 100 parts by mass of polybutylene terephthalate.