mhurhangee/ep-ind-claims huggingface dataset:
A method for generating seismic signals with a seismic source that is operatively connected to a controllable valve, the method comprising: coupling a reaction mass associated with the seismic source to the earth; measuring a supply hydraulic pressure, a return hydraulic pressure and a hydraulic pressure to and from hydraulic passageways associated with the controllable valve; estimating a displacement of the controllable valve; sending the measured pressure values and the estimated displacement to a processor; generating a primary control signal using the processor, the measured pressure values, and the estimated displacement, wherein the processor includes a model of a response of the controllable valve over a selected operating range, characterised in that processor uses the model to reduce a nonlinearity in flow versus a displacement response of the controllable valve, the nonlinearity occurs in a region of zero valve displacement, and wherein the model is based at least partially on a relationship defined by: Q L = KX V P s − X V X V P L where: QL=Hydraulic flow through the servo valve; K=Hydraulic flow gain; Xv=Servo Valve displacement; PS=Hydraulic fluid supply pressure; and PL=Hydraulic differential pressure; and transmitting the primary control signal to the controllable valve to generate the seismic signals with the reaction mass. coupling a reaction mass associated with the seismic source to the earth; measuring a supply hydraulic pressure, a return hydraulic pressure and a hydraulic pressure to and from hydraulic passageways associated with the controllable valve; estimating a displacement of the controllable valve; sending the measured pressure values and the estimated displacement to a processor; generating a primary control signal using the processor, the measured pressure values, and the estimated displacement, wherein the processor includes a model of a response of the controllable valve over a selected operating range, characterised in that processor uses the model to reduce a nonlinearity in flow versus a displacement response of the controllable valve, the nonlinearity occurs in a region of zero valve displacement, and wherein the model is based at least partially on a relationship defined by: Q L = KX V P s − X V X V P L where: QL=Hydraulic flow through the servo valve; K=Hydraulic flow gain; Xv=Servo Valve displacement; PS=Hydraulic fluid supply pressure; and PL=Hydraulic differential pressure; and transmitting the primary control signal to the controllable valve to generate the seismic signals with the reaction mass. QL=Hydraulic flow through the servo valve; K=Hydraulic flow gain; Xv=Servo Valve displacement; PS=Hydraulic fluid supply pressure; and PL=Hydraulic differential pressure; and transmitting the primary control signal to the controllable valve to generate the seismic signals with the reaction mass.
A computer-implemented method for handling characters that are not based on the Roman alphabet and that are formatted using a double-byte font format, comprising: receiving a document that includes a character formatted using a double-byte font format; when an application for viewing the document is initialized, determining whether the application supports the use of language libraries that include bitmap character images that are associated with double-byte fonts and, if so, determining whether a language library is available for the double-byte font format; if it is determined that the application that is used to display the document does not support the use of language libraries that include bitmap character images that are associated with double-byte fonts, or that a language library is unavailable for the double-byte font format, referencing a table contained in a phonetic language lookup database that includes double-byte font entries and, for each double-byte font entry included in the table, an associated phonetic representation of the double-byte font entry; using a double byte font entry associated with the character formatted using a double-byte font format to obtain the associated phonetic representation of the double-byte font entry; and displaying the phonetic representation on a display device. receiving a document that includes a character formatted using a double-byte font format; when an application for viewing the document is initialized, determining whether the application supports the use of language libraries that include bitmap character images that are associated with double-byte fonts and, if so, determining whether a language library is available for the double-byte font format; if it is determined that the application that is used to display the document does not support the use of language libraries that include bitmap character images that are associated with double-byte fonts, or that a language library is unavailable for the double-byte font format, referencing a table contained in a phonetic language lookup database that includes double-byte font entries and, for each double-byte font entry included in the table, an associated phonetic representation of the double-byte font entry; using a double byte font entry associated with the character formatted using a double-byte font format to obtain the associated phonetic representation of the double-byte font entry; and displaying the phonetic representation on a display device.
Cradle of a vehicle which comprises a lower shell, an upper shell and a spacer, the lower shell being secured to the upper shell by defining a hollow space in which said spacer is positioned in abutment between said two shells (11, 12), said cradle being adapted to, at the location of the spacer, form a support for suspension elements, fixing elements of an engine or lower steering control elements, the cradle being also projecting into said hollow space a support for fixing the cradle to the structure of the vehicle, characterized in that a reinforcing element is positioned in said hollow space, said reinforcing element being secured to the lower shell at the edge of the support for fixing the cradle and comprises an opening in which said spacer is positioned.
A continuous casting nozzle (hereinafter referred to simply as "nozzle") for being located beneath a stopper for controlling a flow rate of molten steel in continuous casting of molten steel, and fittingly engageable with the stopper in a fitting engagement region, the nozzle comprising: a fitting engagement sub-region including a contact area with the stopper, the fitting engagement sub-region comprising a layer composed of a refractory material for a fitting engagement region (the layer will hereinafter be referred to as "fitting engagement region refractory material layer"); a nozzle body composed of a different refractory material from the refractory material for the fitting engagement region (the different refractory material will hereinafter be referred to as "main body refractory material"); and a gas outlet provided in at least one boundary area between the fitting engagement region refractory material layer and the main body refractory material in a surface of the nozzle contactable with molten steel. a fitting engagement sub-region including a contact area with the stopper, the fitting engagement sub-region comprising a layer composed of a refractory material for a fitting engagement region (the layer will hereinafter be referred to as "fitting engagement region refractory material layer"); a nozzle body composed of a different refractory material from the refractory material for the fitting engagement region (the different refractory material will hereinafter be referred to as "main body refractory material"); and a gas outlet provided in at least one boundary area between the fitting engagement region refractory material layer and the main body refractory material in a surface of the nozzle contactable with molten steel.
A method for producing a filter material, in particular for hydraulic systems, in which a filter mat consisting of at least one ply of a filter medium is provided with successive pleats by moving pleating blades against one another, which pleating blades act on the filter mat to form a respective pleat bottom, characterised in that when forming at least part of the pleats, a weld connection is formed between the pleat bottom and the pleat top by means of ultrasonic energy which is effective between the pleating blade in question and a counter element situated on the respective pleat top.
A network function, NF, management method, comprising: receiving an NF discovery request from a first NF component, wherein the NF discovery request comprises a second NF identifier and an expected network slice identifier, and the second NF identifier indicates a second NF type; obtaining component information of at least one second NF component based on the second NF identifier and the expected network slice identifier, wherein the at least one second NF component supports the second NF type and is located in a network slice indicated by expected network slice identifier, and the component information of at least one second NF component respectively comprises a discovery policy of the second NF component, a second NF component identifier and at least one network slice identifier of the second NF component indicating a network slice in which the second NF component is located; determining, based on the discovery policy in the component information, whether the first NF component can access the second NF component; and sending to the first NF component, the second NF component identifier of the at least one second NF component which can be accessed by the first NF component. receiving an NF discovery request from a first NF component, wherein the NF discovery request comprises a second NF identifier and an expected network slice identifier, and the second NF identifier indicates a second NF type; obtaining component information of at least one second NF component based on the second NF identifier and the expected network slice identifier, wherein the at least one second NF component supports the second NF type and is located in a network slice indicated by expected network slice identifier, and the component information of at least one second NF component respectively comprises a discovery policy of the second NF component, a second NF component identifier and at least one network slice identifier of the second NF component indicating a network slice in which the second NF component is located; determining, based on the discovery policy in the component information, whether the first NF component can access the second NF component; and sending to the first NF component, the second NF component identifier of the at least one second NF component which can be accessed by the first NF component.
An invoice access method based on a blockchain, comprising: receiving a creation request initiated by a creation user for a target invoice by using a client; determining an invoice issuer and an invoice receiver of the target invoice in response to the creation request; invoking an encryption logic provided in a smart contract, to separately encrypt plaintext data of the target invoice based on keys corresponding to the invoice issuer and the invoice receiver, and adding encrypted ciphertext data of the target invoice and user identifiers of the invoice issuer and the invoice receiver of the target invoice to the blockchain for storage; receiving an access request initiated by an access user for the target invoice by using a client; determining, in response to the access request, whether the access user has an authority to access the target invoice; and in response to that the access user has the authority to access the target invoice, invoking decryption logic provided in a predetermined smart contract to decrypt ciphertext data of the target invoice stored in the blockchain based on a key corresponding to the access user, and returning decrypted plaintext data of the target invoice to the client. receiving a creation request initiated by a creation user for a target invoice by using a client; determining an invoice issuer and an invoice receiver of the target invoice in response to the creation request; invoking an encryption logic provided in a smart contract, to separately encrypt plaintext data of the target invoice based on keys corresponding to the invoice issuer and the invoice receiver, and adding encrypted ciphertext data of the target invoice and user identifiers of the invoice issuer and the invoice receiver of the target invoice to the blockchain for storage; receiving an access request initiated by an access user for the target invoice by using a client; determining, in response to the access request, whether the access user has an authority to access the target invoice; and in response to that the access user has the authority to access the target invoice, invoking decryption logic provided in a predetermined smart contract to decrypt ciphertext data of the target invoice stored in the blockchain based on a key corresponding to the access user, and returning decrypted plaintext data of the target invoice to the client.
A retraction device for retracting a movably-supported furniture part into a closed end position relative to a furniture carcass, including: - an entrainment member configured to be releasably coupled to the movable furniture part, - at least one spring device for applying a force to the entrainment member in a direction opposite to an extension direction of the entrainment member, wherein the spring device is configured to be tensioned in the extension direction of the entrainment member by a spring holder separate from the entrainment member, - a coupling device for coupling a movement between the entrainment member and the spring holder, the coupling device being configured to vary a distance between a fastening location of the spring device on the spring holder and the entrainment member upon extending the entrainment member in the extension direction, characterized in that the coupling device includes at least one control element having a longitudinal axis extending in the extension direction, the control element being configured to rotate at least partially about the longitudinal axis upon extending the entrainment member in the extension direction to vary the distance between the fastening location and the entrainment member. - an entrainment member configured to be releasably coupled to the movable furniture part, - at least one spring device for applying a force to the entrainment member in a direction opposite to an extension direction of the entrainment member, wherein the spring device is configured to be tensioned in the extension direction of the entrainment member by a spring holder separate from the entrainment member, - a coupling device for coupling a movement between the entrainment member and the spring holder, the coupling device being configured to vary a distance between a fastening location of the spring device on the spring holder and the entrainment member upon extending the entrainment member in the extension direction,
A reservoir element comprising: a spin conduction layer containing a non-magnetic conductor; a layer comprising a plurality of ferromagnetic cylinders positioned upright above the spin conduction layer and spaced apart from each other; characterised by a plurality of via wirings electrically connected to the spin conduction layer, and positioned below the spin conduction layer; wherein each of the ferromagnetic cylinders is located in a position overlapping with one of the via wirings. a spin conduction layer containing a non-magnetic conductor; a layer comprising a plurality of ferromagnetic cylinders positioned upright above the spin conduction layer and spaced apart from each other; characterised by a plurality of via wirings electrically connected to the spin conduction layer, and positioned below the spin conduction layer; wherein each of the ferromagnetic cylinders is located in a position overlapping with one of the via wirings.
A device for processing status signals which occur in a vehicle, comprising a display unit which is or can be arranged in a driver's cab of the vehicle; a control unit which exchanges or can exchange signals with the display unit and is designed to acquire status signals in the vehicle from different signal sources, to assign each status signal to one of a plurality of signal groups, and to output at least one message about the acquired status signals on the display unit, wherein a position of the message on a display area of the display unit depends on the assigned signal group, and wherein the control unit is designed to switch the display unit, in reaction to the acquired status signal, between a first state in which no message is displayed, and a second state in which the at least one message is displayed; the device is characterized in that it also comprises: an input unit which exchanges signals with the control unit and is designed to change the state (316; 318; 320) of the display unit manually; wherein the control unit is also designed to switch the display unit into a third state in which the content of the status signal is displayed in a spatial assignment to the message, wherein the change in the state (316; 318; 320) of the display unit depends on a priority assigned to the status signal; wherein a status signal with the highest priority is displayed automatically in the third state, and wherein a status signal with a subordinate priority is displayed on the display area in the second state. an input unit which exchanges signals with the control unit and is designed to change the state (316; 318; 320) of the display unit manually; wherein the control unit is also designed to switch the display unit into a third state in which the content of the status signal is displayed in a spatial assignment to the message, wherein the change in the state (316; 318; 320) of the display unit depends on a priority assigned to the status signal; wherein a status signal with the highest priority is displayed automatically in the third state, and wherein a status signal with a subordinate priority is displayed on the display area in the second state.
An optical system, comprising: a front unit having positive refractive power; an aperture stop; and a rear unit having positive or negative refractive power, in order from an object side to an image side, wherein the front unit has a first positive lens and the rear unit has a negative lens, and when an Abbe number of a material of the first positive lens is defined as νdp1, a partial dispersion ratio of the material of the first positive lens with respect to a g-line and an F-line is defined as θgFp1, a refractive index and an Abbe number of a material of the negative lens with respect to a d-line are defined as Ndn1 and νdn1, respectively, and a partial dispersion ratio of the material of the negative lens with respect to the g-line and the F-line is defined as θgFn1, satisfying the following conditions: 80 < νdp 1 < 97, 0.025 < θgFp 1 − 0.6438 + 0.001682 × νdp 1 < 0.080, 1.75 < Ndn 1 < 2.10, and 0.020 < θgFn 1 − 0.6438 + 0.001682 × νdn 1 < 0.100. a front unit having positive refractive power; an aperture stop; and a rear unit having positive or negative refractive power, in order from an object side to an image side, wherein the front unit has a first positive lens and the rear unit has a negative lens, and when an Abbe number of a material of the first positive lens is defined as νdp1, a partial dispersion ratio of the material of the first positive lens with respect to a g-line and an F-line is defined as θgFp1, a refractive index and an Abbe number of a material of the negative lens with respect to a d-line are defined as Ndn1 and νdn1, respectively, and a partial dispersion ratio of the material of the negative lens with respect to the g-line and the F-line is defined as θgFn1, satisfying the following conditions: 80 < νdp 1 < 97, 0.025 < θgFp 1 − 0.6438 + 0.001682 × νdp 1 < 0.080, 1.75 < Ndn 1 < 2.10, and 0.020 < θgFn 1 − 0.6438 + 0.001682 × νdn 1 < 0.100.
An MCT4 antisense oligonucleotide, wherein the oligonucleotide has a sequence selected from the following: (a) TCCCATGGCCAGGAGGGTTG (SEQ ID NO:1); (b) GTCCCGGAAGACGCTCAGGT (SEQ ID NO:2); (c) AAGGACGCAGCCACCATGCC (SEQ ID NO:3); (d) TTGGCGTAGCTCACCACGAA (SEQ ID NO:4); (e) AGATGCAGAAGACCACGAGG (SEQ ID NO:5); (f) CCACTCTGGAATGACACGGT (SEQ ID NO:6); (g) GTAGGAGAAGCCAGTGATGAC (SEQ ID NO:7); (h) AGCATGGCCAGCAGGATGGA (SEQ ID NO:8); (i) GGCTGGAAGTTGAGTGCCAA (SEQ ID NO:9); (j) CATGCCGTAGGAGATGCCAA (SEQ ID NO:10); (k) CTCAGGCTGTGGCTCTTTGG (SEQ ID NO:11); TAGCGGTTCAGCATGATGA (SEQ ID NO:12); (m) AGCACGGCCCAGCCCCAGCC (SEQ ID NO:13); (n) GAGCTCCTTGAAGAAGACACT (SEQ ID NO:14); (o) CAGGATGGAGGAGATCCAGG (SEQ ID NO:15); (p) AGACCCCCCACAAGCATGAC (SEQ ID NO:16); (q) GAAGTTGAGTGCCAAACCCAA (SEQ ID NO:17); (r) CCCGTTGGCCATGGGGCGCC (SEQ ID NO:18); (s) GCCAGCCCGTTGGCCATGGG (SEQ ID NO:19); (t) AGGAAGACAGGGCTACCTGC (SEQ ID NO:20); (u) GCACACAGGAAGACAGGGCT (SEQ ID NO:21); (v) CAGGGCACACAGGAAGACAG (SEQ ID NO:22); (w) CAGCAGTTGAGCAGCAGGCC (SEQ ID NO:23); (x) ATGGCCAGGAGGGTTG (SEQ ID NO:46); (y) CATGGCCAGGAGGGTT (SEQ ID NO:47); (z) CCATGGCCAGGAGGGT (SEQ ID NO:48); and (aa) CCCATGGCCAGGAGGG (SEQ ID NO:49). (a) TCCCATGGCCAGGAGGGTTG (SEQ ID NO:1); (b) GTCCCGGAAGACGCTCAGGT (SEQ ID NO:2); (c) AAGGACGCAGCCACCATGCC (SEQ ID NO:3); (d) TTGGCGTAGCTCACCACGAA (SEQ ID NO:4); (e) AGATGCAGAAGACCACGAGG (SEQ ID NO:5); (f) CCACTCTGGAATGACACGGT (SEQ ID NO:6); (g) GTAGGAGAAGCCAGTGATGAC (SEQ ID NO:7); (h) AGCATGGCCAGCAGGATGGA (SEQ ID NO:8); (i) GGCTGGAAGTTGAGTGCCAA (SEQ ID NO:9); (j) CATGCCGTAGGAGATGCCAA (SEQ ID NO:10); (k) CTCAGGCTGTGGCTCTTTGG (SEQ ID NO:11); TAGCGGTTCAGCATGATGA (SEQ ID NO:12); (m) AGCACGGCCCAGCCCCAGCC (SEQ ID NO:13); (n) GAGCTCCTTGAAGAAGACACT (SEQ ID NO:14); (o) CAGGATGGAGGAGATCCAGG (SEQ ID NO:15); (p) AGACCCCCCACAAGCATGAC (SEQ ID NO:16); (q) GAAGTTGAGTGCCAAACCCAA (SEQ ID NO:17); (r) CCCGTTGGCCATGGGGCGCC (SEQ ID NO:18); (s) GCCAGCCCGTTGGCCATGGG (SEQ ID NO:19); (t) AGGAAGACAGGGCTACCTGC (SEQ ID NO:20); (u) GCACACAGGAAGACAGGGCT (SEQ ID NO:21); (v) CAGGGCACACAGGAAGACAG (SEQ ID NO:22); (w) CAGCAGTTGAGCAGCAGGCC (SEQ ID NO:23); (x) ATGGCCAGGAGGGTTG (SEQ ID NO:46); (y) CATGGCCAGGAGGGTT (SEQ ID NO:47); (z) CCATGGCCAGGAGGGT (SEQ ID NO:48); and (aa) CCCATGGCCAGGAGGG (SEQ ID NO:49).