mhurhangee/ep-ind-claims huggingface dataset:
A sequence number synchronization method, applied to a first network device of an overlay segmented transport network, wherein the first network device is configured to forward a plurality of data packets, and the method comprises: sending, by the first network device, a data packet comprising a first synchronization indication to a second network device, wherein the first synchronization indication is used to indicate the second network device and the first network device to perform a sequence number synchronization operation; receiving, by the first network device, a response packet sent by the second network device, wherein the response packet comprises a second synchronization indication, and the second synchronization indication is used to indicate that the second network device has received the data packet comprising the first synchronization indication; and before the first network device receives the response packet comprising the second synchronization indication, setting, by the first network device, the first synchronization indication in the plurality of data packets sent to the second network device. sending, by the first network device, a data packet comprising a first synchronization indication to a second network device, wherein the first synchronization indication is used to indicate the second network device and the first network device to perform a sequence number synchronization operation; receiving, by the first network device, a response packet sent by the second network device, wherein the response packet comprises a second synchronization indication, and the second synchronization indication is used to indicate that the second network device has received the data packet comprising the first synchronization indication; and before the first network device receives the response packet comprising the second synchronization indication, setting, by the first network device, the first synchronization indication in the plurality of data packets sent to the second network device.
A regulator constructed and arranged so as to provide any one of a plurality of desired voltage levels of a regulated signal output to a load (38, 92) at the regulator output, each desired voltage level being a function of a corresponding reference signal, the regulator being characterised in that it comprises: a plurality of capacitors (C1, C2,..., Cn), arranged in parallel and each separately switchable between the output of the regulator and system ground, the capacitors each being chargeable to a predetermined and different voltage level corresponding to a respective desired voltage level of a regulated signal output prior to each being connected to the load; and a plurality of switches (40a, 40b,..., 40n; 86a, 86b,..., 86 n) for selectively allowing each of the capacitors to be charged to a predetermined and different desired voltage level when the capacitor is disconnected between the output of the regulator and system ground, and applying the desired voltage level to the load (38, 92) at the regulator output depending on and as a function of the desired level of the regulated signal output when the capacitor is connected between the load and system ground so as to immediately provide a new desired voltage level of the regulated signal output to the load (38, 92) as rapidly as the corresponding switch (40a, 40b,..., 40 n; 86a, 86b,..., 86 n) changes states. a plurality of capacitors (C1, C2,..., Cn), arranged in parallel and each separately switchable between the output of the regulator and system ground, the capacitors each being chargeable to a predetermined and different voltage level corresponding to a respective desired voltage level of a regulated signal output prior to each being connected to the load; and a plurality of switches (40a, 40b,..., 40n; 86a, 86b,..., 86 n) for selectively allowing each of the capacitors to be charged to a predetermined and different desired voltage level when the capacitor is disconnected between the output of the regulator and system ground, and applying the desired voltage level to the load (38, 92) at the regulator output depending on and as a function of the desired level of the regulated signal output when the capacitor is connected between the load and system ground so as to immediately provide a new desired voltage level of the regulated signal output to the load (38, 92) as rapidly as the corresponding switch (40a, 40b,..., 40 n; 86a, 86b,..., 86 n) changes states.
A resource indication method, comprising: generating a physical layer protocol data unit, PPDU, the PPDU comprises a universal signal, U-SIG field, and the U-SIG field comprises a bandwidth field and a preamble puncturing information field, wherein the bandwidth field indicates a full bandwidth, and the full bandwidth is 80MHz or 160MHz or 320MHz; wherein: when the PPDU is in non-orthogonal frequency division multiple access, non-OFDMA, transmission mode, the preamble puncturing information field is used to indicate a puncturing status of the full bandwidth; when the PPDU is in an orthogonal frequency division multiple access, OFDMA, transmission mode, the preamble puncturing information field is used to indicate a puncturing status of an 80 MHz corresponding to a frequency domain segment; and sending the PPDU. when the PPDU is in non-orthogonal frequency division multiple access, non-OFDMA, transmission mode, the preamble puncturing information field is used to indicate a puncturing status of the full bandwidth; when the PPDU is in an orthogonal frequency division multiple access, OFDMA, transmission mode, the preamble puncturing information field is used to indicate a puncturing status of an 80 MHz corresponding to a frequency domain segment; and sending the PPDU.
A process for the production of a fuel from mineral oil and vegetable oil, in which the mineral oil and the vegetable oil are desulphurised in a hydrogenation unit and for this purpose are mixed with hydrogen and passed over a catalyst at high pressure and at high temperature, characterized in that the desulphurization is carried out in recurring time blocks, wherein the hydrogenation unit is exclusively supplied with vegetable oil in a first time block and is exclusively supplied with mineral oil in an ensuing second time block.
Method for automated configuring of a high power X-ray source apparatus for operating to emit X-rays, the high power X-ray source apparatus being set up having multiple modules (20, 28, 30, 50, 53), the multiplicity of modules (20, 28, 30, 50, 53) of the high power X-ray source apparatus each comprising identification unit (25, 27, 31, 52, 54), whereby identification and/or nominal parameters of each module (20, 28, 30, 50, 53) are stored in the identification unit (25, 27, 31, 52, 54) of the respective module (20, 28, 30, 50, 53), wherein an acceptable set of parameters for each of the multiplicity of modules (20, 28, 30, 50, 53) is stored in a database of a configuration control unit, at least one identification and/or nominal parameter of each of the multiplicity of modules (20, 28, 30, 50, 53) is transmitted from the identification unit (25, 27, 31, 52, 54) of the respective module (20, 28, 30, 50, 53) to the configuration control unit, the transmitted parameters of the multiplicity of modules (20, 28, 30, 50, 53) are compared with the acceptable parameter set from the database by means of the configuration control unit and each module (20, 28, 30, 50, 53) is authenticated if the transmitted parameters of the modules (20, 28, 30, 50, 53) match the acceptable parameter set of the database, before operating the high power X-ray source apparatus, at least one operating parameter of at least one of said modules(20, 28, 30, 50, 53) is determined by means of the configuration control unit based on the transmitted parameters of the multiplicity of modules (20, 28, 30, 50, 53), the high power X-ray source apparatus is automated configured by setting the determined operating parameter of said at least one module (20, 28, 30, 50, 53), and the identification and/or nominal parameters of each module (20, 23, 30, 50, 53) stored in the identification unit (25, 27, 31, 52, 54) of the respective module (20, 23, 30, 50, 53) comprise maximum operating voltage and/or maximum operating current and/or maximum operating power and/or maximum operating filament current and/or typical operating filament voltage.
Guide device, in particular for sliding doors, having a running part with at least one roller and a guide rail made of a shaped steel sheet, which has at least one track (4, 5) on which at least one roller of the running part rolls, wherein the guide rail is formed in two layers in the region of the at least one track (4, 5), and the at least one track (4, 5) is convexly curved upwards in cross-section, whereby each roller has a surface which, in a radial section, is concavely curved at least in some regions and two radially projecting rings (12, 13) are provided on both sides of the surface which encompass the track (4, 5) characterized in that the at least one roller contacts the curved track (4, 5) at two spaced-apart points (15, 16) which are arranged on opposite sides of a central plane of the track (4, 5), whereby a groove-shaped recess is provided in a middle plane of the roller which provides the roller from contacting the track (4, 5) in this area.
A cross-connect system (100, 300) comprising: one or more cross-connect devices optically interconnected to 1) a plurality of switches with each switch connected to one or more subtending servers, and 2) a plurality of switch circuits having Photonic Integrated Circuits, PICs, integrated therewith in a same Application Specific Integrated Circuit, ASIC, each of the one or more cross-connect devices is configured to provide fan-out of the plurality of switches between the plurality of switch circuits to increase a number of the subtending servers, wherein the one or more cross-connect devices are one of an optical cross-connect (200, 202) and an electrical cross-connect (310, 400), and wherein one or more of the plurality of switches each include an optical module, and wherein the optical module and a connected PIC include a same wavelength, format, and bit rate, and when the one or more cross-connect devices is an electrical cross-connect (310, 400), the electrical cross-connect (310, 400) include arbitrary rate plugs connected to optical interfaces in the plurality of switches, and one or more PICs in the electrical cross-connect (310, 400) connected to the PICs of the plurality of switch circuits. one or more cross-connect devices optically interconnected to 1) a plurality of switches with each switch connected to one or more subtending servers, and 2) a plurality of switch circuits having Photonic Integrated Circuits, PICs, integrated therewith in a same Application Specific Integrated Circuit, ASIC, each of the one or more cross-connect devices is configured to provide fan-out of the plurality of switches between the plurality of switch circuits to increase a number of the subtending servers, wherein the one or more cross-connect devices are one of an optical cross-connect (200, 202) and an electrical cross-connect (310, 400), and wherein one or more of the plurality of switches each include an optical module, and wherein the optical module and a connected PIC include a same wavelength, format, and bit rate, and when the one or more cross-connect devices is an electrical cross-connect (310, 400), the electrical cross-connect (310, 400) include arbitrary rate plugs connected to optical interfaces in the plurality of switches, and one or more PICs in the electrical cross-connect (310, 400) connected to the PICs of the plurality of switch circuits.
A method of producing air cushions with an air cushion machine (10; 100) for cushioning at least one item (82, 84) to be shipped in a box, the method comprising the steps of: determining a void volume defined by a difference between a volume of the box and a volume of the at least one item (82, 84) to be shipped in the box, producing a quantity of air cushions in the form of a string with the air cushion machine (10; 100), the string of the cushions having a total air cushion volume, and controlling an inflation assembly to produce the correct number of air cushions at a correct inflation, characterised in that the correct inflation is achieved by inflating the air cushions at a given inflation value, as a percentage of the available volume of each individual air cushion, depending on the determined void volume, the inflation value being the same for all air cushions or being different for at least one air cushion of the string from another air cushion of the same string, such that, the total air cushion volume in the string of the cushions being equal to the void volume. determining a void volume defined by a difference between a volume of the box and a volume of the at least one item (82, 84) to be shipped in the box, producing a quantity of air cushions in the form of a string with the air cushion machine (10; 100), the string of the cushions having a total air cushion volume, and controlling an inflation assembly to produce the correct number of air cushions at a correct inflation, characterised in that the correct inflation is achieved by inflating the air cushions at a given inflation value, as a percentage of the available volume of each individual air cushion, depending on the determined void volume, the inflation value being the same for all air cushions or being different for at least one air cushion of the string from another air cushion of the same string, such that, the total air cushion volume in the string of the cushions being equal to the void volume.
A method of processing a ciphertext based on homomorphic encryption, comprising: determining an approximate polynomial corresponding to a modulus reduction for bootstrapping a ciphertext based on samples extracted from the modulus reduction; and bootstrapping the ciphertext based on the approximate polynomial, wherein the determining comprises determining a coefficient of the approximate polynomial such that current differences between the samples extracted from the modulus reduction and values of the approximate polynomial are less than a predetermined threshold, and wherein the differences between the samples extracted from the modulus reduction and the values of the approximate polynomial are determined based on an L2-norm between the samples extracted from the modulus reduction and the values of the approximate polynomial. determining an approximate polynomial corresponding to a modulus reduction for bootstrapping a ciphertext based on samples extracted from the modulus reduction; and bootstrapping the ciphertext based on the approximate polynomial, wherein the determining comprises determining a coefficient of the approximate polynomial such that current differences between the samples extracted from the modulus reduction and values of the approximate polynomial are less than a predetermined threshold, and wherein the differences between the samples extracted from the modulus reduction and the values of the approximate polynomial are determined based on an L2-norm between the samples extracted from the modulus reduction and the values of the approximate polynomial.
An isolated human or mouse neural precursor cell deficient in the production of adenosine kinase, said cell comprising a defect in both alleles of the adenosine kinase gene, wherein said cell is able to differentiate into a neuron or glial cell, obtainable by treating embryonic stem cells which have been isolated from a mammal, (a) so as to disrupt one allele of the adenosine kinase gene in said ES cell, thereby deriving an ES cell comprising a defect in one allele of an adenosine kinase gene; treating said ES cell derived from step (a) so as to (b) inactivate the remaining allele of adenosine kinase gene, thereby generating an ES cell comprising a defect in both alleles of the adenosine kinase gene; and differentiating said ES cells generated in step (b) to a neural precursor cell. obtainable by treating embryonic stem cells which have been isolated from a mammal, (a) so as to disrupt one allele of the adenosine kinase gene in said ES cell, thereby deriving an ES cell comprising a defect in one allele of an adenosine kinase gene; treating said ES cell derived from step (a) so as to (b) inactivate the remaining allele of adenosine kinase gene, thereby generating an ES cell comprising a defect in both alleles of the adenosine kinase gene; and differentiating said ES cells generated in step (b) to a neural precursor cell.
A pneumatic tire comprising, on an outer surface of a sidewall portion thereof, a decorative portion including a print layer and also including an inner layer and an outer layer respectively disposed on a tire inner side and a tire outer side of the print layer, wherein, when a storage modulus of the print layer measured at 25 °C, a storage modulus of the inner layer measured at 25 °C, and a storage modulus of the outer layer measured at 25 °C are respectively defined as E1 25 ', E2 25 ', and E3 25 ', the following relational expressions are satisfied: E 1 25 ' < E 2 25 '; and E 1 25 ' < E 3 25 ', and when a storage modulus of the print layer measured at 80 °C, a storage modulus of the inner layer measured at 80 °C, and a storage modulus of the outer layer measured at 80 °C are respectively defined as E1 80 ', E2 80 ', and E3 80 ', and a storage modulus variation α1 at high temperature of the print layer, a storage modulus variation α2 at high temperature of the inner layer, and a storage modulus variation α3 at high temperature of the outer layer are respectively defined as α 1 = | E 1 25 ' − E 1 80 ' | / E 1 25 ', α 2 = | E 2 25 ' − E 2 80 ' | / E 2 25 ', and α 3 = | E 3 25 ' − E 3 80 ' | / E 3 25 ', the following relational expressions are satisfied: α 1 < α 2; and α 1 < α 3, and the following relational expressions are further satisfied: E 2 25 ' > E 2 80 '; and E 3 25 ' > E 3 80 '.
A vibratory meter including a multi-channel flow tube, the vibratory meter comprising: a meter electronics; and a meter assembly communicatively coupled to the meter electronics, the meter assembly comprising: the multi-channel flow tube (430, 530) comprising two or more fluid channels (432, 532) surrounded by a tube wall (434, 534), wherein the two or more fluid channels (432, 532) and tube wall (434, 534) comprise a single integral structure; and a driver coupled to the multi-channel flow tube (430, 530), the driver being configured to vibrate the multi-channel flow tube (430, 530); characterized by: wherein the two or more fluid channels (432, 532) and tube wall (434, 534) are configured to deform in a same direction as the single integral structure in response to a drive signal applied to the driver, and the two or more fluid channels (432, 532) are defined by channel tubes (436, 536) affixed to each other and extending along a longitudinal length of the multi-channel flow tube (430, 530). a meter electronics; and a meter assembly communicatively coupled to the meter electronics, the meter assembly comprising: the multi-channel flow tube (430, 530) comprising two or more fluid channels (432, 532) surrounded by a tube wall (434, 534), wherein the two or more fluid channels (432, 532) and tube wall (434, 534) comprise a single integral structure; and a driver coupled to the multi-channel flow tube (430, 530), the driver being configured to vibrate the multi-channel flow tube (430, 530); characterized by: wherein the two or more fluid channels (432, 532) and tube wall (434, 534) are configured to deform in a same direction as the single integral structure in response to a drive signal applied to the driver, and the two or more fluid channels (432, 532) are defined by channel tubes (436, 536) affixed to each other and extending along a longitudinal length of the multi-channel flow tube (430, 530). the multi-channel flow tube (430, 530) comprising two or more fluid channels (432, 532) surrounded by a tube wall (434, 534), wherein the two or more fluid channels (432, 532) and tube wall (434, 534) comprise a single integral structure; and a driver coupled to the multi-channel flow tube (430, 530), the driver being configured to vibrate the multi-channel flow tube (430, 530); characterized by: wherein the two or more fluid channels (432, 532) and tube wall (434, 534) are configured to deform in a same direction as the single integral structure in response to a drive signal applied to the driver, and the two or more fluid channels (432, 532) are defined by channel tubes (436, 536) affixed to each other and extending along a longitudinal length of the multi-channel flow tube (430, 530).
Network entity on a service layer for identifier allocating and/or identifier mapping of network services, wherein the network entity is configured to: - receive a first identifier of a first network service, - generate a second identifier of a second network service, and - map the second identifier to the first identifier; wherein one of the first identifier and the second identifier is a network slice instance ID, NSI-ID, wherein the network entity is further configured to: - send the second identifier to a second network entity for identifier allocating and/or identifier mapping. wherein the network entity is configured to: - receive a first identifier of a first network service, - generate a second identifier of a second network service, and - map the second identifier to the first identifier; - receive a first identifier of a first network service, - generate a second identifier of a second network service, and - map the second identifier to the first identifier; wherein one of the first identifier and the second identifier is a network slice instance ID, NSI-ID, wherein the network entity is further configured to: - send the second identifier to a second network entity for identifier allocating and/or identifier mapping. - send the second identifier to a second network entity for identifier allocating and/or identifier mapping.
A vaccine composition against influenza, comprising one or more polypeptides having no more than 100 amino acids and optionally an appropriate excipient and/or adjuvant: wherein the one or more polypeptides include SEQ ID 4 or a sequence having at least 85% identity with the 21 amino acid sequence of SEQ ID 4: SEQ ID 4 PGIADIEDLTLLARSMVVVRP and wherein the polypeptide is immunogenic in a vertebrate expressing a major histocompatibility complex allele.
A method for protecting a photomask, the method comprising: - providing the photomask, - providing a border, - depositing at least two electrical contacts on the border, - mounting a film comprising carbon nanotubes, on the border such that the film comprises a free-standing part, - wherein after the mounting and depositing steps, the electrical contacts are in contact with the film, - inducing a current through the free-standing part of the film by biasing at least one pair of the electrical contacts, - mounting the border on at least one side of the photomask with the free-standing part of the film above the photomask. - providing the photomask, - providing a border, - depositing at least two electrical contacts on the border, - mounting a film comprising carbon nanotubes, on the border such that the film comprises a free-standing part, - wherein after the mounting and depositing steps, the electrical contacts are in contact with the film, - inducing a current through the free-standing part of the film by biasing at least one pair of the electrical contacts, - mounting the border on at least one side of the photomask with the free-standing part of the film above the photomask.