mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a modified starch gel composition for producing hard empty capsules said modified starch gel composition being composed of a starch aqueous solution modified with a debranching enzyme, wherein the modified starch gel composition has a degree of branching that is reduced by 30% to 100% and a viscosity of 500 to 5,000 cps, and is prepared by a method comprising steps of: fully dissolving a starch in water (1:2-1:10 wt/wt) at 85°C to obtain an aqueous starch solution; adding a debranching enzyme to the starch solution and reacting at 40-70°C for 0.5-5 hour, wherein the amount of the debranching enzyme is 0.00001% to 5% of the weight of the starch; heating the mixture to 80°C or above to inactivate the debranching enzyme; and cooling the mixture to 40-70 °C to obtain the modified starch gel composition. fully dissolving a starch in water (1:2-1:10 wt/wt) at 85°C to obtain an aqueous starch solution; adding a debranching enzyme to the starch solution and reacting at 40-70°C for 0.5-5 hour, wherein the amount of the debranching enzyme is 0.00001% to 5% of the weight of the starch; heating the mixture to 80°C or above to inactivate the debranching enzyme; and cooling the mixture to 40-70 °C to obtain the modified starch gel composition.
A method for making an insert, comprising the steps of: a. extruding a thermoplastic material to form a first column structure having a first profile ; b. extruding a thermoplastic material to form a second column having a second profile that is different from the first profile; c. connecting the first column structure to the second column structure with a connector device so that the connector device is shaped to receive the first profile of the first column structure and the second profile of the second column structure, d. locating the insert into a cavity of an automotive vehicle for structurally reinforcing the cavity, characterized in, that the activatable material is located onto at least one internal wall of the one or more column structures. a. extruding a thermoplastic material to form a first column structure having a first profile ; b. extruding a thermoplastic material to form a second column having a second profile that is different from the first profile; c. connecting the first column structure to the second column structure with a connector device so that the connector device is shaped to receive the first profile of the first column structure and the second profile of the second column structure, d. locating the insert into a cavity of an automotive vehicle for structurally reinforcing the cavity,
A method for transmitting data in a Vehicle-to-Everything, V2X, system, the method comprising: establishing (S110), by a terminal device, a radio resource connection with network equipment providing coverage through a serving cell, the network equipment being deployed by a first operator, and a wireless communication network to which the serving cell belongs being deployed by the first operator and a second operator; receiving, by the terminal device, information of the second operator transmitted by the network equipment, the information of the second operator comprising a Public Land Mobile Network, PLMN, number and frequency resource information; and receiving, by the terminal device, data transmitted by the second operator according to the information of the second operator. establishing (S110), by a terminal device, a radio resource connection with network equipment providing coverage through a serving cell, the network equipment being deployed by a first operator, and a wireless communication network to which the serving cell belongs being deployed by the first operator and a second operator; receiving, by the terminal device, information of the second operator transmitted by the network equipment, the information of the second operator comprising a Public Land Mobile Network, PLMN, number and frequency resource information; and receiving, by the terminal device, data transmitted by the second operator according to the information of the second operator.
Method for providing a one-time password (OTP) for a user equipment of a user, that is intended for logging the user equipment on a server , wherein the server generates the one-time password (OTP) by means of a cryptographic operation according to an unequivocal usage ID and transfers it to the user equipment , wherein the user equipment stores the one-time password (OTP) received from the server and transfers it together with the usage ID when the user equipment is logged on the server , wherein the server verifies the user equipment when the user equipment is logged on the server by means of the usage ID implicitly contained in the received one-time password (OTP), wherein the unequivocal usage ID is formed by a combination of the user ID of the user and the user equipment ID of the user equipment.
Audio unit for reducing an awareness of a noise produced by a magnetic resonance machine , wherein the audio unit comprises at least one loudspeaker (S), as well as a vibration sensor unit (IS), which is designed to detect signals transmitted by means of bone conduction, characterised in that the audio unit possesses a control unit (C) and the vibration sensor unit is designed to transmit the signals transmitted by means of bone conduction to the control unit (C), wherein the control unit (C) is designed, to ascertain a destructively interfering signal on the basis of the signals transmitted by means of bone conduction, and to output said destructively interfering signal via the loudspeaker (S).
A method for receiving broadcasting content and network content, the method comprising: receiving, through a broadcasting network, broadcasting data packets including a part of the broadcasting content; and receiving, through a telecommunication network, packets from among encoded network packets including network data packets and network parity packets, the network data packets including a part of the network content, the network parity packets including parity data generated by encoding the part of the network content; wherein the part of the broadcasting content and the part of the network content is for being synchronously displayed, characterized in that the method further comprises: performing an error correction decoding process by using the received packets to obtain the network data packets, wherein a specific time is set for each of the encoded network packets, and each packet, which is received after the specific time is elapsed since the reception of the broadcasting data packets is completed, is not used for the error correction decoding process. receiving, through a broadcasting network, broadcasting data packets including a part of the broadcasting content; and receiving, through a telecommunication network, packets from among encoded network packets including network data packets and network parity packets, the network data packets including a part of the network content, the network parity packets including parity data generated by encoding the part of the network content; wherein the part of the broadcasting content and the part of the network content is for being synchronously displayed, performing an error correction decoding process by using the received packets to obtain the network data packets, wherein a specific time is set for each of the encoded network packets, and each packet, which is received after the specific time is elapsed since the reception of the broadcasting data packets is completed, is not used for the error correction decoding process. a specific time is set for each of the encoded network packets, and each packet, which is received after the specific time is elapsed since the reception of the broadcasting data packets is completed, is not used for the error correction decoding process.
A fan case for a gas turbine engine comprising: an annular liner including a plurality of liner fiber layers ; and an annular case body surrounding the annular liner , the annular case body including a plurality of first fiber layers and a plurality of second fiber layers , wherein the first fiber layers each have a first fiber architecture and the second fiber layers each have a second, different fiber architecture, and wherein the second fiber layers are interleaved with the first fiber layers ; characterised in that the first fiber layers extend axially beyond the second fiber layers in axially forward and aft directions. an annular liner including a plurality of liner fiber layers ; and an annular case body surrounding the annular liner , the annular case body including a plurality of first fiber layers and a plurality of second fiber layers , wherein the first fiber layers each have a first fiber architecture and the second fiber layers each have a second, different fiber architecture, and wherein the second fiber layers are interleaved with the first fiber layers ; characterised in that the first fiber layers extend axially beyond the second fiber layers in axially forward and aft directions.
A process for the acetylation of soft wood, comprising providing soft wood, subjecting the wood to an extraction step so as to provide extracted wood, and subjecting the extracted wood to contact with an acetylation agent, characterized in that the extraction step comprises contacting the wood with an extraction fluid having a pressure and temperature so as to conduct the extraction at a temperature of from 120°C to 250°C, preferably 140°C to 160°C, wherein the extraction fluid is water, and wherein the wood is dried before impregnation with acetylation fluid .
An aerosol generating apparatus comprising: a heater housing configured to accommodate a cigarette and including: at least one air circulation hole provided around an inlet through which the cigarette is inserted; and at least one air circulation groove extending along a lengthwise direction in at least a portion of an inner wall of the heater housing and connected to the air circulation hole ; and a heater assembled in the heater housing and configured to heat the cigarette , wherein an air circulation space is formed between the heater and the air circulation groove , such that the air circulation space is formed between an outer surface of the cigarette and the air circulation groove when the cigarette is inserted in the heater housing , characterized in that a first airflow path (P1, 901) formed by the air circulation space and the air circulation hole does not meet a second airflow path (P2, 902) formed in the aerosol generating apparatus for inhalation of aerosol generated from the cigarette . a heater housing configured to accommodate a cigarette and including: at least one air circulation hole provided around an inlet through which the cigarette is inserted; and at least one air circulation groove extending along a lengthwise direction in at least a portion of an inner wall of the heater housing and connected to the air circulation hole ; and at least one air circulation hole provided around an inlet through which the cigarette is inserted; and at least one air circulation groove extending along a lengthwise direction in at least a portion of an inner wall of the heater housing and connected to the air circulation hole ; and a heater assembled in the heater housing and configured to heat the cigarette , wherein an air circulation space is formed between the heater and the air circulation groove , such that the air circulation space is formed between an outer surface of the cigarette and the air circulation groove when the cigarette is inserted in the heater housing , characterized in that a first airflow path (P1, 901) formed by the air circulation space and the air circulation hole does not meet a second airflow path (P2, 902) formed in the aerosol generating apparatus for inhalation of aerosol generated from the cigarette .
Assembly comprising a sample block , a heat sink and at least one electrodeposited thermo electric element , wherein the sample block comprises at least one recess configured to receive a sample vessel , wherein said recess comprises, at its bottom end , a through hole , wherein the electrodeposited thermo electric element comprises at least one through hole , wherein the heat sink comprises at least one through hole , wherein the through hole of the recess , the through hole of the electrodeposited thermo electric element and the through hole of the heat sink are aligned on a common axis .
A computer implemented method of sequence to sequence data processing, comprising: inputting a first input comprising a first input data sequence into a model , the model outputting a first output data sequence, a first part of the model generating an intermediate state comprising information relating to an alignment relationship between the first input data sequence and the first output data sequence, the intermediate state being used in the model to generate the first output data sequence, wherein the first input data sequence comprises a sequence of text related units, and the first output data sequence comprises a sequence representing audio frames; storing the intermediate state , wherein the method is characterised by ; modifying the model to replace the first part with the stored intermediate state; and inputting a second input comprising a second input data sequence into the modified model, the modified model outputting a second output data sequence using the intermediate state , wherein the first input data sequence has the same length as the second input data sequence and wherein the first input has the same dimensions as the second input, and wherein the second input data sequence comprises a sequence of text related units, and the second output data sequence comprises a sequence representing audio frames. inputting a first input comprising a first input data sequence into a model , the model outputting a first output data sequence, a first part of the model generating an intermediate state comprising information relating to an alignment relationship between the first input data sequence and the first output data sequence, the intermediate state being used in the model to generate the first output data sequence, wherein the first input data sequence comprises a sequence of text related units, and the first output data sequence comprises a sequence representing audio frames; storing the intermediate state , wherein the method is characterised by ; modifying the model to replace the first part with the stored intermediate state; and inputting a second input comprising a second input data sequence into the modified model, the modified model outputting a second output data sequence using the intermediate state , wherein the first input data sequence has the same length as the second input data sequence and wherein the first input has the same dimensions as the second input, and wherein the second input data sequence comprises a sequence of text related units, and the second output data sequence comprises a sequence representing audio frames.
Device for the attachment and the adjustment of a bearing (P) in an orifice provided for that purpose in a bridge or a plate of a timepiece, comprising: - A first screw , said bearing screw, defining a support opening of such a bearing (P) having a diameter d1, said first screw comprising an external thread (F1) having an external diameter df1 larger than d1 and a length L1, measured perpendicularly to said diameters d1, df1; - A second screw , said locking screw, defining an internal bore of diameter d2 smaller or equal to d1, said second screw comprising an external thread (F2) having an external diameter df2 larger than diameters d2, d1, df1 and a length L2, measured perpendicularly to said diameters d2, df2; and - A socket defining a tubular housing extending following a longitudinal axis (A-A'), said tubular housing comprising a first tapped section (S1), adapted to screw the first screw , and a second tapped section (S2), adapted to screw the second screw , said tapped sections being joined by a medium section (S3) of linear guiding of said screws ; - The external threads (F1, F2) of the first and second screws and the corresponding sections (S1, S2) of the socket have respective screwing pitches in opposite directions. - A first screw , said bearing screw, defining a support opening of such a bearing (P) having a diameter d1, said first screw comprising an external thread (F1) having an external diameter df1 larger than d1 and a length L1, measured perpendicularly to said diameters d1, df1; - A second screw , said locking screw, defining an internal bore of diameter d2 smaller or equal to d1, said second screw comprising an external thread (F2) having an external diameter df2 larger than diameters d2, d1, df1 and a length L2, measured perpendicularly to said diameters d2, df2; and - A socket defining a tubular housing extending following a longitudinal axis (A-A'), said tubular housing comprising a first tapped section (S1), adapted to screw the first screw , and a second tapped section (S2), adapted to screw the second screw , said tapped sections being joined by a medium section (S3) of linear guiding of said screws ; - The external threads (F1, F2) of the first and second screws and the corresponding sections (S1, S2) of the socket have respective screwing pitches in opposite directions.
A vehicle comprising a frame ; a tub supported by the frame, the tub configured to minimize water intrusion into the vehicle; ground engaging members supporting the frame ; an operator area supported by the frame ; an engine compartment rearward of the operator area , the engine compartment enclosed within the tub; and a first radiator coupled to an engine to cool the engine , wherein the first radiator is positioned rearward of the operator area on a first lateral side of the vehicle ; wherein a second radiator is positioned rearward of the operator area on a second lateral side of the vehicle ; wherein the first and second radiators are fluidly coupled together and to the engine for cooling the engine , the vehicle further comprising a third radiator positioned in front of one of the first or second radiators , and a first fan and a second fan positioned adjacent a respective one of the first and second radiators; wherein the first and second radiators are also above a top of the engine . a frame ; a tub supported by the frame, the tub configured to minimize water intrusion into the vehicle; ground engaging members supporting the frame ; an operator area supported by the frame ; an engine compartment rearward of the operator area , the engine compartment enclosed within the tub; and a first radiator coupled to an engine to cool the engine , wherein the first radiator is positioned rearward of the operator area on a first lateral side of the vehicle ; wherein a second radiator is positioned rearward of the operator area on a second lateral side of the vehicle ; wherein the first and second radiators are fluidly coupled together and to the engine for cooling the engine , the vehicle further comprising a third radiator positioned in front of one of the first or second radiators , and a first fan and a second fan positioned adjacent a respective one of the first and second radiators; wherein the first and second radiators are also above a top of the engine .
A method of controlling operation of a dispensing mechanism for dispensing a material, the mechanism having a removable component removably coupled thereto selected from one or more of a reservoir containing the material to be dispensed and an element of a pump mechanism required for dispensing the material to be dispensed, wherein a plurality of waveguides (64; 184; 200) are carried on the removable component , each waveguide (64; 184; 200) having an entrance and an outlet, comprising the steps of: measuring electromagnetic radiation passing through two or more of said waveguides (64; 184; 200) carried on the removable component by emitting electromagnetic radiation from an electromagnetic radiation emitter, directing the electromagnetic radiation into the entrance of the two or more waveguides (64; 184; 200), and sensing electromagnetic radiation exiting from the outlet of the two or more waveguides (64; 184; 200), permitting operation of the dispensing mechanism only when measured electromagnetic radiation complies with one or more pre-selected output parameters, preventing operation of the dispensing mechanism when the measured electromagnetic radiation of a first of two of the waveguides (64; 184; 200) does not comply with the pre-selected output parameters and the measured electromagnetic radiation of a second of two of the waveguides (64; 184; 200) does not comply with the pre-selected output parameters. measuring electromagnetic radiation passing through two or more of said waveguides (64; 184; 200) carried on the removable component by emitting electromagnetic radiation from an electromagnetic radiation emitter, directing the electromagnetic radiation into the entrance of the two or more waveguides (64; 184; 200), and sensing electromagnetic radiation exiting from the outlet of the two or more waveguides (64; 184; 200), permitting operation of the dispensing mechanism only when measured electromagnetic radiation complies with one or more pre-selected output parameters, preventing operation of the dispensing mechanism when the measured electromagnetic radiation of a first of two of the waveguides (64; 184; 200) does not comply with the pre-selected output parameters and the measured electromagnetic radiation of a second of two of the waveguides (64; 184; 200) does not comply with the pre-selected output parameters.
Sensor device for detecting the presence of a body or substance in a spatial region (A), in particular for detecting an electrically conductive liquid flow in a washing machine such as a washing bath flow emitted by a spraying impeller into a dishwasher machine, comprising detecting circuit means , including at least one circuit support board and at least first and second foils or sheets (A, B) of an electrically conductive material; and control circuit means (MC) coupled with said detecting circuit means and having an output connected with one (B) of said foils (A, B) for applying a first electric radiofrequency signal thereto and an input connected to another one (A) of said foils (A, B) for receiving a second radiofrequency signal induced in said other foil (A); said control circuit means (MC) being arranged to generate an information signal indicative of the strength of said second signal, which varies as a function of the presence of a body or a substance on or near said other foil (A), said sensor device being characterized in that said foils (A, B) are disposed on opposite faces of said circuit support board .
Device for the fragmentation of DNA samples (A) that are in solution in a container (C), the device comprising: - a vessel for receiving a liquid (L), the vessel being provided with means for producing ultrasonic waves so as to spread ultrasonic waves through the liquid (L); and - a first support element resting on the vessel , the device being characterised in that it further comprises a second support element comprising a passage designed to receive the container (C), the second support element being suspended from at least one suspension element at a distance from said first support element by at least one deformable suspension element forming at least one swivel joint in such a way as to allow for the immersion of a lower portion of the container (C) in the liquid (L), the second support element is separate from the lateral faces of the vessel by a predetermined distance in such a way as to limit the exposure of the container (C) to the edge effects in the vicinity of the lateral faces created by the reflection of the ultrasonic waves by the lateral faces. - a vessel for receiving a liquid (L), the vessel being provided with means for producing ultrasonic waves so as to spread ultrasonic waves through the liquid (L); and - a first support element resting on the vessel ,