mhurhangee/ep-ind-claims huggingface dataset:
A telecommunications system for communicating data to and from one or more terminals and a network, the system comprising one or more transmitters (403, 405) operable to transmit a first carrier over a first frequency bandwidth and to transmit a second carrier over a second frequency bandwidth, wherein during a first time period the one or more transmitters are operable to transmit user data receivable by a first class of terminal on the first carrier and to transmit data receivable by a second class of terminal on the second carrier; and during a second time period outside the first time period, the one or more transmitters are operable to transmit data to the second class of terminal on the first and second carriers in combination, wherein a transmission format for the data on the first carrier in the first time period is incompatible with a transmission format for the data on the second carrier during the first time period, said telecommunication system being characterized in that: a transmission format for the data on the first carrier in the second time period is compatible with a transmission format for the data on the second carrier during the second time period, and wherein the one or more transmitters are operable to transmit control data on the first carrier in the first time period which is receivable by the second class of terminal to enable the second class of terminal to maintain synchronisation with the first carrier during the first time period. a transmission format for the data on the first carrier in the second time period is compatible with a transmission format for the data on the second carrier during the second time period, and wherein the one or more transmitters are operable to transmit control data on the first carrier in the first time period which is receivable by the second class of terminal to enable the second class of terminal to maintain synchronisation with the first carrier during the first time period.
A method for diverting Session Initiation Protocol, SIP, messages using rules, the method being performed by an application server and comprising: holding a communication diversion policy at the application server including one or more forwarding rules for one or more nodes that specify how SIP messages are to be diverted to a second node different from the first node to which the message was originally directed, receiving a SIP message including a first field, the first field comprising a first Globally Routable User Agent Uniform Resource Identifier, GRUU, identifying a node, wherein the first GRUU comprises a 'gr' URI parameter and a 'gr' parameter value; comparing the first GRUU with a second GRUU of a communication diversion policy, and when the first GRUU matches the second GRUU, diverting the SIP message to a URI of a target field of the communication diversion policy. holding a communication diversion policy at the application server including one or more forwarding rules for one or more nodes that specify how SIP messages are to be diverted to a second node different from the first node to which the message was originally directed, receiving a SIP message including a first field, the first field comprising a first Globally Routable User Agent Uniform Resource Identifier, GRUU, identifying a node, wherein the first GRUU comprises a 'gr' URI parameter and a 'gr' parameter value; comparing the first GRUU with a second GRUU of a communication diversion policy, and when the first GRUU matches the second GRUU, diverting the SIP message to a URI of a target field of the communication diversion policy.
A system for creating and maintaining block-based protocols on a virtual storage appliance executing in a physical storage appliance, the system comprising: a plurality of network resources adapted to process block-based protocols; and one or more vfilers (VF1, VF2, VF3), each of the one or more vfilers (VF1, VF2, VF3) being a virtual server, such as a virtual storage appliance, and comprising a logical partitioning of the network resources establishing an instance of a multi-protocol server configured to service data access requests in response to both the block-based and file-based protocols, wherein the logical partitioning of network resources includes allocating dedicated and distinct units of storage resources and network addresses to the vfilers, and each vfiler is maintained and executed independently of other vfilers on the physical storage appliance, wherein each vfiler is provided with a vfiler context that includes information pertaining to a security domain of the vfiler and that operates to control access to the resources of the vfiler; the system further comprising a user interface for creating a virtual disk (vdisk),for increasing or decreasing the size of a vdisk, and/or destroying a vdisk; wherein block-based commands supported by the UI only operate within the particular vfiler context in which they are executed, and a vdisk must be created on a storage unit owned by the vfiler in whose vfiler context the command to create the vfiler was executed; and wherein a vdisk is a special file type that emulates a disk for a storage area network client of the system who has a storage viewpoint of blocks and disks. a plurality of network resources adapted to process block-based protocols; and one or more vfilers (VF1, VF2, VF3), each of the one or more vfilers (VF1, VF2, VF3) being a virtual server, such as a virtual storage appliance, and comprising a logical partitioning of the network resources establishing an instance of a multi-protocol server configured to service data access requests in response to both the block-based and file-based protocols, wherein the logical partitioning of network resources includes allocating dedicated and distinct units of storage resources and network addresses to the vfilers, and each vfiler is maintained and executed independently of other vfilers on the physical storage appliance, wherein each vfiler is provided with a vfiler context that includes information pertaining to a security domain of the vfiler and that operates to control access to the resources of the vfiler; the system further comprising a user interface for creating a virtual disk (vdisk),for increasing or decreasing the size of a vdisk, and/or destroying a vdisk; wherein block-based commands supported by the UI only operate within the particular vfiler context in which they are executed, and a vdisk must be created on a storage unit owned by the vfiler in whose vfiler context the command to create the vfiler was executed; and wherein a vdisk is a special file type that emulates a disk for a storage area network client of the system who has a storage viewpoint of blocks and disks.
A circuit configured for adding multiple inputs, the circuit comprising: a plurality of unsigned adders, each unsigned adder being configured to perform a respective addition operation using a respective set of inputs derived from the multiple inputs, wherein each unsigned adder of the plurality of unsigned adders does not comprise normalization circuitry; a plurality of input selectors, each unsigned adder being associated with a respective input selector, the respective input selector being configured to: receive a first set of inputs derived from the multiple inputs; select at least two inputs from the first set of inputs, the at least two inputs being selected based on a sign bit for an input in the first set of inputs such that the selected at least two inputs have the same sign; provide the first set of inputs to the associated unsigned adder to generate a first sum of the selected at least two inputs; and a normalizing adder configured to: generate a final sum based on one or more sums generated using the plurality of unsigned adders that each sum at least two inputs that have the same sign, wherein the final sum corresponds to a sum of the multiple inputs. a plurality of unsigned adders, each unsigned adder being configured to perform a respective addition operation using a respective set of inputs derived from the multiple inputs, wherein each unsigned adder of the plurality of unsigned adders does not comprise normalization circuitry; a plurality of input selectors, each unsigned adder being associated with a respective input selector, the respective input selector being configured to: receive a first set of inputs derived from the multiple inputs; select at least two inputs from the first set of inputs, the at least two inputs being selected based on a sign bit for an input in the first set of inputs such that the selected at least two inputs have the same sign; provide the first set of inputs to the associated unsigned adder to generate a first sum of the selected at least two inputs; and receive a first set of inputs derived from the multiple inputs; select at least two inputs from the first set of inputs, the at least two inputs being selected based on a sign bit for an input in the first set of inputs such that the selected at least two inputs have the same sign; provide the first set of inputs to the associated unsigned adder to generate a first sum of the selected at least two inputs; and a normalizing adder configured to: generate a final sum based on one or more sums generated using the plurality of unsigned adders that each sum at least two inputs that have the same sign, wherein the final sum corresponds to a sum of the multiple inputs.
A method comprising: positioning an optical sensor (102, 202, 502, 602, 802, 902, 1002) in optical communication with a fluid sample under analysis, the optical sensor (102, 202, 502, 602, 802, 902, 1002) comprising: a first optical emitter (220, 520, 1020); a second optical emitter (224, 824, 924, 1024); a first optical pathway (226, 526, 626, 926, 1026, 1126); an optical detector (234, 534, 934, 1034); and an optical window (228, 1028) optically coupling the optical sensor (102, 202, 502, 602, 802, 902, 1002) and the fluid sample; emitting light at a first wavelength by the first optical emitter (220, 520, 1020) through the first optical pathway (226, 526, 626, 926, 1026, 1126) and the optical window (228, 1028) into the fluid sample to excite fluorescent emissions in the fluid sample; detecting the fluorescent emissions emitted by the fluid sample through the first optical pathway (226, 526, 626, 926, 1026, 1126) by the optical detector (234, 534, 934, 1034); emitting light at a second wavelength different than the first wavelength by the second optical emitter (224, 824, 924, 1024) through the first optical pathway (226, 526, 626, 926, 1026, 1126) and the optical window (228, 1028) into the fluid sample (230 under analysis, wherein the light emitted by the second optical emitter is scattered off the fluid sample; and detecting the light scattered by the fluid sample through the first optical pathway (226, 526, 626, 926, 1026, 1126) by the optical detector (234, 534, 934, 1034), wherein the method is characterized in that the second optical emitter (224, 824, 924, 1024) is positioned in the first optical pathway (226, 526, 626, 926, 1026, 1126). a first optical emitter (220, 520, 1020); a second optical emitter (224, 824, 924, 1024); a first optical pathway (226, 526, 626, 926, 1026, 1126); an optical detector (234, 534, 934, 1034); and an optical window (228, 1028) optically coupling the optical sensor (102, 202, 502, 602, 802, 902, 1002) and the fluid sample; emitting light at a first wavelength by the first optical emitter (220, 520, 1020) through the first optical pathway (226, 526, 626, 926, 1026, 1126) and the optical window (228, 1028) into the fluid sample to excite fluorescent emissions in the fluid sample; detecting the fluorescent emissions emitted by the fluid sample through the first optical pathway (226, 526, 626, 926, 1026, 1126) by the optical detector (234, 534, 934, 1034); emitting light at a second wavelength different than the first wavelength by the second optical emitter (224, 824, 924, 1024) through the first optical pathway (226, 526, 626, 926, 1026, 1126) and the optical window (228, 1028) into the fluid sample (230 under analysis, wherein the light emitted by the second optical emitter is scattered off the fluid sample; and detecting the light scattered by the fluid sample through the first optical pathway (226, 526, 626, 926, 1026, 1126) by the optical detector (234, 534, 934, 1034), wherein the method is characterized in that the second optical emitter (224, 824, 924, 1024) is positioned in the first optical pathway (226, 526, 626, 926, 1026, 1126).
Assembly comprising an electrical mechanism and a base comprising a bottom wall supporting the mechanism, said mechanism being capable of being held on said base by means of snap-on engagement, said base comprising snap-on engagement means comprising a resiliently flexible lock which comprises a supporting bearing surface opposing said bottom wall, said mechanism comprising a tab which, when the mechanism is in the snapped-on position, is engaged between said bearing surface and said bottom wall, said assembly comprising a recess between said tab and said lock in the axis of the tab and being characterised in that a recess is also provided between said bearing surface and said bottom wall, said recess forming a passage which opens opposite said bottom wall, this passage thus being accessible for a tool which is capable of moving said lock away from said tab to disengage said tab from said bearing surface.
An antibody or a functional fragment thereof capable of specifically binding to human tumor necrosis factor alpha (TNFα), wherein said antibody or functional fragment comprises (i) a V L domain having an amino acid sequence selected from the group consisting of SEQ ID NO:22 and SEQ ID NO:24, and (ii) a V H domain having the amino acid sequence as shown in SEQ ID NO:21, and wherein specific binding refers to the ability of the antibody or fragment to discriminate between human TNFα and human TNFβ.
6-Fluoro-7-(2-fluoro-6-hydroxyphenyl)-1-(4-methyl-2-(2-propanyl)-3-pyridinyl)-4-( -2-methyl-4-(2-propenoyl)-1-piperazinyl)pyrido[2,3-d]pyrimidin-2 -one having the following chemical structure or an atropisomer thereof, a pharmaceutically acceptable salt thereof, or a pharmaceutically acceptable salt of the atropisomer thereof.
A process for reducing the formation of silver chloride on a high-efficiency silver catalyst used in the production of an alkylene oxide from a reactor feed gas comprising an alkylene, oxygen, and at least one organic chloride, the process comprising controlling the concentration of sulfur in the reactor feed gas on an atomic basis to no more than 30 ppbv; wherein the step of controlling the concentration of sulfur in the reactor feed gas comprises at least one of: (i) selectively fluidly coupling at least one feed gas source to the process; and (ii) providing an alkylene feed comprising the alkylene and sulfur-containing compounds, and desulfurizing the alkylene feed. (i) selectively fluidly coupling at least one feed gas source to the process; and (ii) providing an alkylene feed comprising the alkylene and sulfur-containing compounds, and desulfurizing the alkylene feed.
A stainless steel plate, comprising: a stainless steel; a recess being formed along grain boundaries exposed to a base surface of the stainless steel; a surface film comprising at least one of an Fe and Cr-based oxide and an Fe and Cr-based hydroxide, the surface film having a thickness of 0.1 μm or greater and 3.0 μm or less on the surface of the stainless steel including a surface of the recess; and a groove corresponding the recess is formed on a front side of the surface film, the groove having an opening width of 0.2 μm or greater and 2.0 μm or less and a depth of 0.2 μm or greater and 2.0 μm or less. a stainless steel; a recess being formed along grain boundaries exposed to a base surface of the stainless steel; a surface film comprising at least one of an Fe and Cr-based oxide and an Fe and Cr-based hydroxide, the surface film having a thickness of 0.1 μm or greater and 3.0 μm or less on the surface of the stainless steel including a surface of the recess; and a groove corresponding the recess is formed on a front side of the surface film, the groove having an opening width of 0.2 μm or greater and 2.0 μm or less and a depth of 0.2 μm or greater and 2.0 μm or less.
A vehicle body frame of a motorcycle comprising: a front frame portion extending rearward from a head pipe, and a rear frame portion extending rearward from a rear end of the front frame portion; a forward portion of the rear frame portion including a closed cross-section structure portion including right and left plate members (50, 51) joined together in a rightward and leftward direction; characterized in that the front frame portion includes a pair of right and left frame members (30, 31) between which a distance in the rightward and leftward direction is set, and in that the width of the cross-section structure portion in the rightward and leftward direction is smaller than a distance between rear end portions of the right and left frame members (30, 31). a front frame portion extending rearward from a head pipe, and a rear frame portion extending rearward from a rear end of the front frame portion; a forward portion of the rear frame portion including a closed cross-section structure portion including right and left plate members (50, 51) joined together in a rightward and leftward direction; characterized in that the front frame portion includes a pair of right and left frame members (30, 31) between which a distance in the rightward and leftward direction is set, and in that the width of the cross-section structure portion in the rightward and leftward direction is smaller than a distance between rear end portions of the right and left frame members (30, 31).
A method for relocating an object of interest at a second imaging station based on coordinates for the object of interest at a first imaging station, the method comprising: acquiring a first pair of images including a reference image of a biological specimen comprising cells on the first imaging station and a second image of the specimen on the second imaging station; identifying a cell group that appears in both the reference image and second image; determining stage coordinates of the cell group on the first imaging station from stage coordinates at which the reference image was acquired; determining stage coordinates of the cell group on the second imaging station from stage coordinates at which the second image was acquired; and calculating an affine transformation that converts the stage coordinates of the first imaging station to the stage coordinates of the second imaging station, wherein acquiring the first pair of images includes selecting the reference image from a plurality of reference image candidates obtained during a scan of the specimen at the first imaging station, assigning a suitability score to each of a plurality of reference image candidates and selecting a reference image candidate with a highest suitability score as the reference image, wherein assigning the suitability score includes assigning a score that corresponds to a probability that an image of a predetermined size taken from within the reference image includes uniquely identifiable cells acquiring a first pair of images including a reference image of a biological specimen comprising cells on the first imaging station and a second image of the specimen on the second imaging station; identifying a cell group that appears in both the reference image and second image; determining stage coordinates of the cell group on the first imaging station from stage coordinates at which the reference image was acquired; determining stage coordinates of the cell group on the second imaging station from stage coordinates at which the second image was acquired; and calculating an affine transformation that converts the stage coordinates of the first imaging station to the stage coordinates of the second imaging station, wherein acquiring the first pair of images includes selecting the reference image from a plurality of reference image candidates obtained during a scan of the specimen at the first imaging station, assigning a suitability score to each of a plurality of reference image candidates and selecting a reference image candidate with a highest suitability score as the reference image, wherein assigning the suitability score includes assigning a score that corresponds to a probability that an image of a predetermined size taken from within the reference image includes uniquely identifiable cells
A method of making an asymmetric hollow fiber carbon molecular sieve comprising, (i) providing a dope solution comprised of a polyimide and a solvent, wherein the polyimide has a storage modulus minimum at a temperature greater than 250°C that is less than the storage modulus at a temperature of 250°C, but no more than ten times less, wherein the storage modulus minimum is measured using dynamic mechanical thermal analysis as described herein from 250°C to a temperature where the polyimide carbonizes, and the polyimide is represented by: where X is 0.1 to 0.9 and Y is 0.1 to 0.9 and X+Y=1 and n is an integer that may be any that realizes a molecular weight of 30 to 200 kDa, (ii) shaping the dope solution to form a hollow fiber; (iii) removing the solvent from the hollow fiber to form a polyimide hollow fiber; and (iv) heating the polyimide hollow fiber in an atmosphere that is non-oxidizing to form the asymmetric hollow fiber carbon molecular sieve. (i) providing a dope solution comprised of a polyimide and a solvent, wherein the polyimide has a storage modulus minimum at a temperature greater than 250°C that is less than the storage modulus at a temperature of 250°C, but no more than ten times less, wherein the storage modulus minimum is measured using dynamic mechanical thermal analysis as described herein from 250°C to a temperature where the polyimide carbonizes, and the polyimide is represented by: where X is 0.1 to 0.9 and Y is 0.1 to 0.9 and X+Y=1 and n is an integer that may be any that realizes a molecular weight of 30 to 200 kDa, (ii) shaping the dope solution to form a hollow fiber; (iii) removing the solvent from the hollow fiber to form a polyimide hollow fiber; and (iv) heating the polyimide hollow fiber in an atmosphere that is non-oxidizing to form the asymmetric hollow fiber carbon molecular sieve.