mhurhangee/patent-ind-claim-en huggingface dataset:
A printing apparatus comprising: a printing unit configured to form a first printing area (A2) in a recording medium (W) which is transported by ejecting first ink onto a first path in a direction crossing a transport direction of the recording medium, to form a second printing area (A3) in the recording medium by ejecting second ink onto a second path different from the first path, and thereby to form an image which is configured with the first printing area and the second printing area; a decision unit configured to decide a first ejection position of the first ink in the first path and a second ejection position of the second ink in the second path, based on the image data which is input, when the image is formed; and a correction determination unit configured to perform ejection position change correction in which the first ejection position is changed such that the first ink is ejected onto the second path and the second ejection position is changed such that a part of the second ink is ejected onto the first path, based on decision results of the decision unit. a printing unit configured to form a first printing area (A2) in a recording medium (W) which is transported by ejecting first ink onto a first path in a direction crossing a transport direction of the recording medium, to form a second printing area (A3) in the recording medium by ejecting second ink onto a second path different from the first path, and thereby to form an image which is configured with the first printing area and the second printing area; a decision unit configured to decide a first ejection position of the first ink in the first path and a second ejection position of the second ink in the second path, based on the image data which is input, when the image is formed; and a correction determination unit configured to perform ejection position change correction in which the first ejection position is changed such that the first ink is ejected onto the second path and the second ejection position is changed such that a part of the second ink is ejected onto the first path, based on decision results of the decision unit.
A protective helmet comprising:- an impact-resistant outer shell ; an impact-resistant transparent visor attached to opposite sides of the shell by hinge means ; and a flexible seal around an upper edge of the visor and in contact with the outer shell : characterised in that the seal extends around the rear of said hinge means ; and that all parts are arranged so that whatever the position of the visor on the shell there is a smooth surface for liquid run-off.
A method for determining soil properties, comprising: a. pushing a probe system into a soil , the probe system including at least a liquid injection port and at least one pressure transducer ; b. carrying out pumping tests, wherein during a pumping test infiltration liquid is pumped through the liquid injection port into the soil at a substantially constant liquid injection flow rate (Q); and c. measuring by means of the at least one pressure transducer , for each of the pumping tests, a pressure response in the soil resulting from the injection of liquid through the liquid injection port ; wherein the pumping tests comprise a plurality of successive pumping tests, characterized in that each pumping test is carried out at a different substantially constant liquid injection flow rate (Q) with respect to each other. a. pushing a probe system into a soil , the probe system including at least a liquid injection port and at least one pressure transducer ; b. carrying out pumping tests, wherein during a pumping test infiltration liquid is pumped through the liquid injection port into the soil at a substantially constant liquid injection flow rate (Q); and c. measuring by means of the at least one pressure transducer , for each of the pumping tests, a pressure response in the soil resulting from the injection of liquid through the liquid injection port ;
A method for wireless communications at a user equipment, UE, comprising: transmitting a signal to a base station indicating a UE capability configuration; receiving , over an unlicensed radio frequency spectrum band, a wakeup signal during a monitoring period, the wakeup signal indicating that wireless communications are to be performed between the UE and the base station during an active time period; identifying a guard time period upon receiving the wakeup signal, wherein the guard time period is based at least in part on the UE capability configuration; and performing , after an expiration of the guard time period, the wireless communications with the base station during the active time period. transmitting a signal to a base station indicating a UE capability configuration; receiving , over an unlicensed radio frequency spectrum band, a wakeup signal during a monitoring period, the wakeup signal indicating that wireless communications are to be performed between the UE and the base station during an active time period; identifying a guard time period upon receiving the wakeup signal, wherein the guard time period is based at least in part on the UE capability configuration; and performing , after an expiration of the guard time period, the wireless communications with the base station during the active time period.
An intelligent connection system, the system comprising: a first component including a first connector; a second component including a second connector; wherein said system is configured to: broadcast connector identification information via the first component connector; receive said identification information via the second component connector; perform a connection match, and upon verifying a match between said first connector and said second connector: initiate an autonomous connection procedure among said first and said second component connectors; and establish a physical connection between said two component connectors, wherein said connection matching is performed using look-up of connector identification information locally or on a network. a first component including a first connector; a second component including a second connector; wherein said system is configured to: broadcast connector identification information via the first component connector; receive said identification information via the second component connector; perform a connection match, and upon verifying a match between said first connector and said second connector: initiate an autonomous connection procedure among said first and said second component connectors; and establish a physical connection between said two component connectors, wherein said connection matching is performed using look-up of connector identification information locally or on a network. broadcast connector identification information via the first component connector; receive said identification information via the second component connector; perform a connection match, and upon verifying a match between said first connector and said second connector: initiate an autonomous connection procedure among said first and said second component connectors; and establish a physical connection between said two component connectors, wherein said connection matching is performed using look-up of connector identification information locally or on a network. initiate an autonomous connection procedure among said first and said second component connectors; and establish a physical connection between said two component connectors, wherein said connection matching is performed using look-up of connector identification information locally or on a network.
A method for correcting an expression level(s) of a target small RNA(s) for comparative analysis of the expression level(s) in a plurality of samples, said method comprising: an extraction step of adding at least one kind of standard substance to each of said plurality of samples, said standard substance being a nucleic acid with a nucleic acid length of not less than 200 bases, and then extracting nucleic acids from each sample to obtain a nucleic acid sample; a measurement step of measuring the amounts of the target small RNA(s) and the standard substance(s) present in each extracted nucleic acid sample, to obtain measured values of the expression level(s) of the target small RNA(s) in, and the amount(s) of the standard substance(s) extracted from, each of the samples; a representative-value-obtaining step of obtaining, for each of the samples, a representative value from the measured value(s) of the amount(s) of the standard substance(s) extracted; a correction-factor-obtaining step of obtaining, as a correction factor for each sample for correction of the expression level(s) of the target small RNA(s) in said each sample, the difference or the ratio between a reference value that is arbitrarily set in connection with the amount(s) of the standard substance(s) extracted and the representative value of the standard substance(s) obtained for said each sample in the representative-value-obtaining step; and a correction step of correcting the expression level(s) of the target small RNA(s) measured in each sample using the correction factor obtained for said each sample. an extraction step of adding at least one kind of standard substance to each of said plurality of samples, said standard substance being a nucleic acid with a nucleic acid length of not less than 200 bases, and then extracting nucleic acids from each sample to obtain a nucleic acid sample; a measurement step of measuring the amounts of the target small RNA(s) and the standard substance(s) present in each extracted nucleic acid sample, to obtain measured values of the expression level(s) of the target small RNA(s) in, and the amount(s) of the standard substance(s) extracted from, each of the samples; a representative-value-obtaining step of obtaining, for each of the samples, a representative value from the measured value(s) of the amount(s) of the standard substance(s) extracted; a correction-factor-obtaining step of obtaining, as a correction factor for each sample for correction of the expression level(s) of the target small RNA(s) in said each sample, the difference or the ratio between a reference value that is arbitrarily set in connection with the amount(s) of the standard substance(s) extracted and the representative value of the standard substance(s) obtained for said each sample in the representative-value-obtaining step; and a correction step of correcting the expression level(s) of the target small RNA(s) measured in each sample using the correction factor obtained for said each sample.
A sealing assembly for a gas turbine engine , the sealing assembly comprising: a case ; a support arm connected to and extending radially inward from the case ; a carrier connected to an end of the support arm ; a vane having a portion disposed downstream of the carrier ; a W-seal having a portion disposed within the carrier ; and a J-shield gasket disposed adjacent to and abutting the W-seal , the J-shield gasket positioned partially between the W-seal and the carrier and partially between the W-seal and the vane ; wherein the J-shield gasket comprises first and second portions , a first curved corner disposed between the first and second portions of the J-shield gasket , and a second curved corner disposed on an end of the second portion of the J-shield gasket opposite the first portion , wherein the vane comprises an airfoil and a platform disposed on a radially outward end of the airfoil , the platform including a rail , wherein a portion of the rail is disposed adjacent to and abutting the J-shield gasket ; characterised in that the J-shield gasket is slidably engaged with the rail of the platform ; and the W-seal is able to rotate within the carrier . a case ; a support arm connected to and extending radially inward from the case ; a carrier connected to an end of the support arm ; a vane having a portion disposed downstream of the carrier ; a W-seal having a portion disposed within the carrier ; and a J-shield gasket disposed adjacent to and abutting the W-seal , the J-shield gasket positioned partially between the W-seal and the carrier and partially between the W-seal and the vane ; wherein the J-shield gasket comprises first and second portions , a first curved corner disposed between the first and second portions of the J-shield gasket , and a second curved corner disposed on an end of the second portion of the J-shield gasket opposite the first portion , wherein the vane comprises an airfoil and a platform disposed on a radially outward end of the airfoil , the platform including a rail , wherein a portion of the rail is disposed adjacent to and abutting the J-shield gasket ; characterised in that the J-shield gasket is slidably engaged with the rail of the platform ; and the W-seal is able to rotate within the carrier .
Method for checking the load-bearing capacity of screw-in foundations comprising the following steps: a. Screwing the screw-in foundations into the ground, b. Determining the screw-in foundations on which a load test to check the load bearing capacity is to be performed, c. Performing the load test on the determined screw-in foundations, characterized in that for each screw-in foundation the screw-in torque and the screw-in path are continuously measured during the screwing in, that for each screw-in foundation an insertion torque-displacement curve is established, and that the determination of the screw-in foundations on which a load test is to be performed is made on the basis of the insertion torque-displacement curve. a. Screwing the screw-in foundations into the ground, b. Determining the screw-in foundations on which a load test to check the load bearing capacity is to be performed, c. Performing the load test on the determined screw-in foundations, characterized in that for each screw-in foundation the screw-in torque and the screw-in path are continuously measured during the screwing in, that for each screw-in foundation an insertion torque-displacement curve is established, and that the determination of the screw-in foundations on which a load test is to be performed is made on the basis of the insertion torque-displacement curve. characterized in that for each screw-in foundation the screw-in torque and the screw-in path are continuously measured during the screwing in, that for each screw-in foundation an insertion torque-displacement curve is established, and that the determination of the screw-in foundations on which a load test is to be performed is made on the basis of the insertion torque-displacement curve.
Device for generating heat, having a shaft which is rotatably arranged within a surround , wherein at least one magnet is arranged on the shaft so that the surround as a result of the magnet which rotates with the shaft can be heated at least in regions by means of magnetic interaction and wherein the surround has at least one flow path in order to heat a fluid which is guided in this flow path , characterised in that the surround comprises at least in regions an aluminium/magnesium/silicon alloy (AlMgSi).
Method for producing a security document , wherein a first document part and at least one further document part are provided, wherein the first as well as the further document part each have at least one joining surface for abutting one another, wherein the first and the at least one further document part are joined together by a joining method by applying a joining force to a joining surface of the document parts, wherein the first and the at least one further document part are folded to produce a fold line by applying or exerting a folding force on the document parts, characterized in that in a folding-joining step, an applied joining force forms at least part of the folding force required for complete production of the fold line and the folding and joining are carried out at least partially simultaneously, the first and the at least one further document part being joined to one another by lamination, a lamination force applied during the lamination forming at least part of the folding force required for complete folding.
An encryption method performed by a computing apparatus including one or more processors and a memory for storing one or more programs executed by the one or more processors, the encryption method comprising: generating a public key share of a user; receiving public key shares of one or more other users from terminals of the one or more other users; generating a public key using the public key share of the user and the public key shares of the one or more other users; encrypting a first plaintext using the public key, thereby generating a first ciphertext; obtaining a second ciphertext resulting from encrypting a second plaintext using the public key; and performing homomorphic evaluation on the first and the second ciphertext by adding the first and the second ciphertext, thereby generating a third ciphertext corresponding to the sum of the first and the second plaintext. generating a public key share of a user; receiving public key shares of one or more other users from terminals of the one or more other users; generating a public key using the public key share of the user and the public key shares of the one or more other users; encrypting a first plaintext using the public key, thereby generating a first ciphertext; obtaining a second ciphertext resulting from encrypting a second plaintext using the public key; and performing homomorphic evaluation on the first and the second ciphertext by adding the first and the second ciphertext, thereby generating a third ciphertext corresponding to the sum of the first and the second plaintext.
A method for a base station comprising: receiving a user plane packet via a single tunnel established between the base station and a core network entity (264; 266) for a single packet data network connection, wherein the user plane packet comprises a header encapsulating a network layer packet associated to one particular traffic sub-class of various differentiated traffic sub-classes mapped to the tunnel, and wherein the user plane packet is extracted from a transport level packet having a header including an indication of a transport level quality of service, QoS, classification; obtaining, from the header of the user plane packet, an indicator indicative of a particular policy of a plurality of policies for handling the various differentiated traffic sub-classes mapped to the tunnel; and applying the particular policy on the received user plane packet. receiving a user plane packet via a single tunnel established between the base station and a core network entity (264; 266) for a single packet data network connection, wherein the user plane packet comprises a header encapsulating a network layer packet associated to one particular traffic sub-class of various differentiated traffic sub-classes mapped to the tunnel, and wherein the user plane packet is extracted from a transport level packet having a header including an indication of a transport level quality of service, QoS, classification; obtaining, from the header of the user plane packet, an indicator indicative of a particular policy of a plurality of policies for handling the various differentiated traffic sub-classes mapped to the tunnel; and applying the particular policy on the received user plane packet.
Arrangement comprising an audio streaming device for providing live audio content to a plurality of personal recording devices at a live event, a soundboard enabling an operator to make adjustments to audio signals and a plurality of microphones , - the plurality of microphones placed at various locations around a venue hosting the live event, - the soundboard receiving audio signals from the plurality of microphones , - the audio streaming device comprising one or more processors programmed to: establish a network connection using respective wireless communication links with the plurality of personal recording devices ; receive live audio content from the soundboard ; and stream the live audio content in a wireless manner to the plurality of personal recording devices . - the plurality of microphones placed at various locations around a venue hosting the live event, - the soundboard receiving audio signals from the plurality of microphones , - the audio streaming device comprising one or more processors programmed to: establish a network connection using respective wireless communication links with the plurality of personal recording devices ; receive live audio content from the soundboard ; and stream the live audio content in a wireless manner to the plurality of personal recording devices . establish a network connection using respective wireless communication links with the plurality of personal recording devices ; receive live audio content from the soundboard ; and stream the live audio content in a wireless manner to the plurality of personal recording devices .
A device for demarcating a center line of an automobile , the device comprises: a holder apparatus comprising a holder assembly and a cross beam assembly mounted on the holder assembly , the cross beam assembly being movable relative to the holder assembly along a vertical direction, the cross beam assembly comprising a guide rail , the guide rail being horizontally disposed, wherein horizontal scales are respectively disposed on both sides of the guide rail ; and two lasers configured to cast two laser beams on the horizontal scales , wherein the two lasers are configured to be respectively disposed on both sides of a automobile ; a reflecting mirror installed on the holder apparatus , wherein the holder apparatus is configured to support the reflecting mirror and drive the reflecting mirror to horizontally or vertically move; and a diaphragm configured to control the laser beams to pass through the diaphragm , the reflecting mirror configured to reflect the laser beams passing through the diaphragm to the two lasers , wherein the diaphragm comprises a fixing base and a sliding diaphragm , the sliding diaphragm being installed on the fixing base , and a position of the sliding diaphragm on the fixing base is adjustable; wherein the holder assembly is configured to be adjustable so that readings of two laser points of the two lasers on the horizontal scales are the same. a holder apparatus comprising a holder assembly and a cross beam assembly mounted on the holder assembly , the cross beam assembly being movable relative to the holder assembly along a vertical direction, the cross beam assembly comprising a guide rail , the guide rail being horizontally disposed, wherein horizontal scales are respectively disposed on both sides of the guide rail ; and two lasers configured to cast two laser beams on the horizontal scales , wherein the two lasers are configured to be respectively disposed on both sides of a automobile ; a reflecting mirror installed on the holder apparatus , wherein the holder apparatus is configured to support the reflecting mirror and drive the reflecting mirror to horizontally or vertically move; and a diaphragm configured to control the laser beams to pass through the diaphragm , the reflecting mirror configured to reflect the laser beams passing through the diaphragm to the two lasers , wherein the diaphragm comprises a fixing base and a sliding diaphragm , the sliding diaphragm being installed on the fixing base , and a position of the sliding diaphragm on the fixing base is adjustable; wherein the holder assembly is configured to be adjustable so that readings of two laser points of the two lasers on the horizontal scales are the same.
Device for sealing the filter press area between two filter press elements in the wedge zone of dewatering machines, particularly double belt presses consisting of two revolving filter press belts with flexible sealing strips that can be arranged between the filter press belts on at least two opposite sides of the filter press area, which are secured to a supporting strip , characterized in that the sealing strips with the respective supporting strips assigned to them are connected to one another by means of a dovetail joint .