mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting the presence of a target sequence comprising: a. producing a probe by: i. obtaining double strand polynucleotides known to contain complementary target sequences and repetitive sequences; ii. fragmenting said double strand polynucleotides into fragments; iii. denaturing said fragments into single strands; iv. hybridizing said repetitive sequences to form a mixture of double strands and single strands; v. cleaving said double strands; and vi. amplifying said single strands wherein said single strands are complementary to said target sequences; and b. adding said probe to a sample containing the target sequence; and c. detecting said probe wherein said detection is selected from a group consisting of ISH, FISH, CGH, spectral karyotyping, chromosome painting, Northern blots, Southern blots, microarray analysis, and combinations thereof. a. producing a probe by: i. obtaining double strand polynucleotides known to contain complementary target sequences and repetitive sequences; ii. fragmenting said double strand polynucleotides into fragments; iii. denaturing said fragments into single strands; iv. hybridizing said repetitive sequences to form a mixture of double strands and single strands; v. cleaving said double strands; and vi. amplifying said single strands wherein said single strands are complementary to said target sequences; and i. obtaining double strand polynucleotides known to contain complementary target sequences and repetitive sequences; ii. fragmenting said double strand polynucleotides into fragments; iii. denaturing said fragments into single strands; iv. hybridizing said repetitive sequences to form a mixture of double strands and single strands; v. cleaving said double strands; and vi. amplifying said single strands wherein said single strands are complementary to said target sequences; and b. adding said probe to a sample containing the target sequence; and c. detecting said probe wherein said detection is selected from a group consisting of ISH, FISH, CGH, spectral karyotyping, chromosome painting, Northern blots, Southern blots, microarray analysis, and combinations thereof.
Method for manufacturing a timepiece comprising the following steps: a. Forming a timepiece (A, B, C) based on a non-magnetic metallic material; b. Making at least one ion implantation of atoms of at least two different types of chemical elements, a first chemical element being selected from carbon, nitrogen, oxygen and boron and a second chemical element, different from the first chemical element, being selected from silicon and boron, to form chemical compounds of these two different chemical elements in the crystalline network of the material of the timepiece to improve the tribological properties such as, in particular, the wear resistance and/or the mechanical characteristics of the timepiece (A, B, C) without impairing the corrosion resistance of the material of the timepiece. a. Forming a timepiece (A, B, C) based on a non-magnetic metallic material; b. Making at least one ion implantation of atoms of at least two different types of chemical elements, a first chemical element being selected from carbon, nitrogen, oxygen and boron and a second chemical element, different from the first chemical element, being selected from silicon and boron, to form chemical compounds of these two different chemical elements in the crystalline network of the material of the timepiece to improve the tribological properties such as, in particular, the wear resistance and/or the mechanical characteristics of the timepiece (A, B, C) without impairing the corrosion resistance of the material of the timepiece.
A method for providing data to a network terminal, the method comprising, at a network node: receiving (S2; S11; S35) information relating to a first instance of a client running at the network terminal; using the information, concurrently running (S3; S14; S35) a second instance of the client, the second instance of the client emulating the first instance of the client; using the second instance of the client, generating (S4a; S27a) a request for data required by the first instance of the client; prior to receiving a request for data generated by the first instance of the client, sending (S4b; S27b; S17; S41) the request for data required by the first instance of the client to a remote server; receiving (S5; S18; S42) from the remote server a response, the response including the required data; and, sending (S6; S7; S23; S47) the required data to the network terminal, characterised in that the method further comprises: running a third instance of the client, the third instance of the client emulating the first instance of the client running on the network terminal; prior to sending the request for data required by the first instance of the client to the remote server, determining (S27b) that the request for data generated by the second instance of the client corresponds to a request for data generated by the third instance of the client. receiving (S2; S11; S35) information relating to a first instance of a client running at the network terminal; using the information, concurrently running (S3; S14; S35) a second instance of the client, the second instance of the client emulating the first instance of the client; using the second instance of the client, generating (S4a; S27a) a request for data required by the first instance of the client; prior to receiving a request for data generated by the first instance of the client, sending (S4b; S27b; S17; S41) the request for data required by the first instance of the client to a remote server; receiving (S5; S18; S42) from the remote server a response, the response including the required data; and, sending (S6; S7; S23; S47) the required data to the network terminal, characterised in that the method further comprises: running a third instance of the client, the third instance of the client emulating the first instance of the client running on the network terminal; prior to sending the request for data required by the first instance of the client to the remote server, determining (S27b) that the request for data generated by the second instance of the client corresponds to a request for data generated by the third instance of the client. running a third instance of the client, the third instance of the client emulating the first instance of the client running on the network terminal; prior to sending the request for data required by the first instance of the client to the remote server, determining (S27b) that the request for data generated by the second instance of the client corresponds to a request for data generated by the third instance of the client.
Method for controlling a dual clutch transmission of a vehicle with a first clutch associated with a first set of gears and a second clutch associated with a second set of gears, comprising the following steps: a) engaging the first clutch to transmit the torque through one of the associated first set of gears, while the second clutch is not engaged, b) thereafter engaging, before the first clutch is fully closed, the second clutch at least partially and releasing the first clutch accordingly until the first clutch is completely disengaged. a) engaging the first clutch to transmit the torque through one of the associated first set of gears, while the second clutch is not engaged, b) thereafter engaging, before the first clutch is fully closed, the second clutch at least partially and releasing the first clutch accordingly until the first clutch is completely disengaged.
Use of carbon acid as a preservative in manufacturing of a healthy drink, characterized in that the drink is manufactured by using spruce sprout or equivalent conifer sprout, water, carbon acid and citric acid.
A multiphase transformer rectifier unit for converting a three-phase (R, S, T) alternating current supplied from a power distribution system to direct current supplied to at least one load, wherein said multiphase transformer rectifier unit comprises a magnetic core having a primary winding set and secondary winding set, and a rectifier circuit, characterised in that - said secondary winding set is arranged to generate N substantially equally distributed output phases, wherein N is an odd number multiple of 3, and N > 3; - said primary winding set is arranged to provide said output phases with a positive or negative phase shift equal substantially to 360 8 × N degrees. - said secondary winding set is arranged to generate N substantially equally distributed output phases, wherein N is an odd number multiple of 3, and N > 3; - said primary winding set is arranged to provide said output phases with a positive or negative phase shift equal substantially to 360 8 × N degrees.
A kit for the optimisation of the expression of a protein in a eukaryotic cell comprising at least two different secretion cassettes, wherein each of said secretion cassettes comprises a first set of genetic elements comprising at least a promoter 3' end, a 5'UTR, and a signal sequence, and a second set of genetic elements comprising at least a 3'UTR and a poly -site downstream region, wherein said first set is upstream of said second set, wherein the at least two secretion cassettes comprise (i) a secretion cassette comprising SEQ ID NO:1 as said promoter 3' end, SEQ ID NO:2 as said 5'UTR, SEQ ID NO: 8 as said SS, SEQ ID NO: 10 as said 3'UTR and SEQ ID NO:11 as said poly -site downstream region; and (ii) a secretion cassette comprising SEQ ID NO:1 as said promoter 3' end, SEQ ID NO:2 as said 5'UTR, SEQ ID NO: 7 as said SS, SEQ ID NO: 16 as said 3'UTR and SEQ ID NO:11 as said poly -site downstream region. (i) a secretion cassette comprising SEQ ID NO:1 as said promoter 3' end, SEQ ID NO:2 as said 5'UTR, SEQ ID NO: 8 as said SS, SEQ ID NO: 10 as said 3'UTR and SEQ ID NO:11 as said poly -site downstream region; and (ii) a secretion cassette comprising SEQ ID NO:1 as said promoter 3' end, SEQ ID NO:2 as said 5'UTR, SEQ ID NO: 7 as said SS, SEQ ID NO: 16 as said 3'UTR and SEQ ID NO:11 as said poly -site downstream region.
Locking for a covering of a vehicle, in particular of a convertible vehicle with a movable roof, - wherein the covering is movable between an open position and a closed position, and the covering closes a receiving space for the movable roof and, in the closed position, a tensioning bow is positioned on the covering, - wherein the tensioning bow and the covering are secured and locked with respect to the vehicle body in the closed position via the locking and the tensioning bow projects here with a closing bow into the receiving space and is held by the locking, - wherein the locking is arranged below the covering and is moved together with the pivoting of the covering, - wherein the locking has a lever system and a hydraulic cylinder for actuating the locking, characterized in that the locking has two lock elements, a locking hook and a locking pin, and the lock elements have various locking functions. - wherein the covering is movable between an open position and a closed position, and the covering closes a receiving space for the movable roof and, in the closed position, a tensioning bow is positioned on the covering, - wherein the tensioning bow and the covering are secured and locked with respect to the vehicle body in the closed position via the locking and the tensioning bow projects here with a closing bow into the receiving space and is held by the locking, - wherein the locking is arranged below the covering and is moved together with the pivoting of the covering, - wherein the locking has a lever system and a hydraulic cylinder for actuating the locking, characterized in that the locking has two lock elements, a locking hook and a locking pin, and the lock elements have various locking functions.
A mobile device for augmented reality, the mobile device comprising: - receiving means configured to receive an image of a physical real world environment taken by at least one camera at a position; - said receiving means being further configured to receive said position, an id associated with said position, where said id being associated with an algorithm to be used on said image to extract a set of features from said image, a stored set of features for said physical real world environment at said position which has been extracted using said algorithm; - processing means configured to extract said set of features from said image using said algorithm; and to determine if and how said camera is observing an object in said physical real world environment by comparing said stored set of features with said set of features, wherein the determination of if and how the camera is observing the object results in a determination of a more accurate position of the camera in relation to the object in the physical real world environment, wherein the more accurate position includes a direction, a turning and more precise position coordinates for the camera in relation to the object in the physical real world environment. - receiving means configured to receive an image of a physical real world environment taken by at least one camera at a position; - said receiving means being further configured to receive said position, an id associated with said position, where said id being associated with an algorithm to be used on said image to extract a set of features from said image, a stored set of features for said physical real world environment at said position which has been extracted using said algorithm; - processing means configured to extract said set of features from said image using said algorithm; and to determine if and how said camera is observing an object in said physical real world environment by comparing said stored set of features with said set of features, wherein the determination of if and how the camera is observing the object results in a determination of a more accurate position of the camera in relation to the object in the physical real world environment, wherein the more accurate position includes a direction, a turning and more precise position coordinates for the camera in relation to the object in the physical real world environment.
A method performed by a control unit in connection with a pre-heating process of an aftertreatment system for a combustion engine, the method comprising: - obtaining a scheduled start time of the combustion engine, - scheduling a pre-heating of the aftertreatment system to be completed before the scheduled start time, - detecting a start of the combustion engine at an actual start time, - in response to the detected start of the combustion engine, and using the actual and scheduled start times, determining whether the scheduled pre-heating of the aftertreatment system fulfils one or more success criteria, wherein the one or more success criteria comprise that the actual start time is later than or coincides with the scheduled start time, - obtaining pre-heating statistics indicating whether or not the one or more success criteria was fulfilled at one or more previous starts of the combustion engine, - when the one or more success criteria are fulfilled, triggering a performance increase of the combustion engine based on the obtained pre-heating statistics. - obtaining a scheduled start time of the combustion engine, - scheduling a pre-heating of the aftertreatment system to be completed before the scheduled start time, - detecting a start of the combustion engine at an actual start time, - in response to the detected start of the combustion engine, and using the actual and scheduled start times, determining whether the scheduled pre-heating of the aftertreatment system fulfils one or more success criteria, wherein the one or more success criteria comprise that the actual start time is later than or coincides with the scheduled start time, - obtaining pre-heating statistics indicating whether or not the one or more success criteria was fulfilled at one or more previous starts of the combustion engine, - when the one or more success criteria are fulfilled, triggering a performance increase of the combustion engine based on the obtained pre-heating statistics.
Pharmaceutical composition in the form of tablets comprising i) gastroresistant microgranules containing a hydrate or solvate form of rifaximin β alone or in a mixture with other crystalline, hydrate, solvate or amorphous forms of rifaximin, in an amount comprised between 100 and 800 mg, ii) pharmaceutically acceptable extragranular excipients, and optionally iii) a film-forming coating whereby the total amount of extragranular excipients contained in the tablet does not exceed 30% by weight of the tablet. i) gastroresistant microgranules containing a hydrate or solvate form of rifaximin β alone or in a mixture with other crystalline, hydrate, solvate or amorphous forms of rifaximin, in an amount comprised between 100 and 800 mg, ii) pharmaceutically acceptable extragranular excipients, and optionally iii) a film-forming coating
A method performed by a user equipment, UE, configured for dynamic bandwidth part, BWP, switching between an active BWP and a target BWP, the method comprising: receiving, from a network node, an indication of resource blocks, selected by the network node to be used by the UE in the target BWP, in a resource allocation field of a downlink control information in the active BWP, the resource allocation field comprising information bits for allocating one or more resource blocks for the target BWP; determining a target BWP resource allocation type based on a relationship between the resources allocated for the target BWP and resources allocated for the active BWP, wherein the target BWP resource allocation type indicates whether the information bits of a resource allocation field in a downlink control information comprise a bitmap corresponding to one or more resource block groups or an integer value corresponding to a starting position and a length of the allocation; interpreting the information bits based on the determined target bandwidth part resource allocation type. receiving, from a network node, an indication of resource blocks, selected by the network node to be used by the UE in the target BWP, in a resource allocation field of a downlink control information in the active BWP, the resource allocation field comprising information bits for allocating one or more resource blocks for the target BWP; determining a target BWP resource allocation type based on a relationship between the resources allocated for the target BWP and resources allocated for the active BWP, wherein the target BWP resource allocation type indicates whether the information bits of a resource allocation field in a downlink control information comprise a bitmap corresponding to one or more resource block groups or an integer value corresponding to a starting position and a length of the allocation; interpreting the information bits based on the determined target bandwidth part resource allocation type.
A drilling equipment for a drilling means or machine, said equipment comprising: a linear guide adapted to be mounted on said machine or means; a drilling head slidable along said guide along a sliding direction, said head being configured for seizing at least one drilling tool and for driving said tool around a drilling axis (Y'); a tool magazine comprising a stationary platform connected to said guide, a revolving table pivotally supported by said stationary platform around a rotation axis (Y") parallel to said sliding direction, and a plurality of seats provided by said revolving table and distributed around said rotation axis (Y") for stably housing respective drilling tools in an upright position substantially parallel with said sliding direction; wherein said stationary platform comprises a tool loading and unloading station to be occupied in sequence by said seats further to a step-like rotation of said revolving table, characterised in that said drilling head is displaceable in accordance with a crosswise direction, orthogonal with said sliding direction, to align its drilling axis (Y') to said loading and unloading station, said station comprising clamping means adapted to lock the drilling tool stopping at the station.
A method of washing ware comprising: (a) contacting ware in a washing step with an aqueous cleaning composition in a ware washing machine, the aqueous cleaning composition comprising a major portion of an aqueous diluent and 200 to 5000 parts by weight of an alkaline washing detergent per each one million parts of the aqueous diluent; and (b) contacting the ware after washing in a rinse step with an aqueous rinse, the aqueous rinse being substantially free of an intentionally added rinse agent, said method being characterized in that the ware washing detergent contains a sufficient amount of a polysaccharide selected from the group consisting of hydroxyethylcellulose; hydrophobically modified hydroxyethylcellulose; ethyl hydroxyethyl cellulose; hydrophobically modified ethyl hydroxyethyl cellulose; hydroxypropylcellulose; and, the modified Guar, guar gum 2-hydroxypropyl ether to provide a layer of the polysaccharide on the ware so as to afford sheeting action in the aqueous rinse step. (a) contacting ware in a washing step with an aqueous cleaning composition in a ware washing machine, the aqueous cleaning composition comprising a major portion of an aqueous diluent and 200 to 5000 parts by weight of an alkaline washing detergent per each one million parts of the aqueous diluent; and (b) contacting the ware after washing in a rinse step with an aqueous rinse, the aqueous rinse being substantially free of an intentionally added rinse agent,
A method for operating a chip having an electronic PUF circuit with active semiconductor elements including logic gates, the PUF circuit including a delay circuit including n-1 stages and a multiplexer, where n is a number of bits in an n-bit challenge, the PUF circuit being designed so that the number of combinations or the number of possible inputs is sufficiently large such that it is impractical for an adversary who is in possession of the chip to measure and store all of the (input, output) pairs exhaustively, to generate and use a secret key to decrypt contents of a memory comprising: storing encrypted content in a memory encrypted according to a volatile key that is not stored in the chip; characterised by: receiving at the delay circuit of the PUF circuit in the chip an n-bit challenge, the n-bit challenge having been selected from the plurality of possible inputs to the PUF circuit and stored on the chip; outputting from the PUF circuit a k-bit response that is specific to the n-bit challenge; combining in the chip the k-bit response with the content of fuses to produce a key; and receiving the key at a decrypter and decrypting contents of the memory in the chip. storing encrypted content in a memory encrypted according to a volatile key that is not stored in the chip; characterised by: receiving at the delay circuit of the PUF circuit in the chip an n-bit challenge, the n-bit challenge having been selected from the plurality of possible inputs to the PUF circuit and stored on the chip; outputting from the PUF circuit a k-bit response that is specific to the n-bit challenge; combining in the chip the k-bit response with the content of fuses to produce a key; and receiving the key at a decrypter and decrypting contents of the memory in the chip. receiving at the delay circuit of the PUF circuit in the chip an n-bit challenge, the n-bit challenge having been selected from the plurality of possible inputs to the PUF circuit and stored on the chip; outputting from the PUF circuit a k-bit response that is specific to the n-bit challenge; combining in the chip the k-bit response with the content of fuses to produce a key; and receiving the key at a decrypter and decrypting contents of the memory in the chip.