mhurhangee/ep-ind-claims huggingface dataset:
A computer including a file system on one or more storage devices, the computer configured to manage storage of and access to a plurality of file system objects of the file system, the file system objects comprising a plurality of extents, wherein an extent is any division of a file, the computer comprising: storage configured to store data including, for each extent of a plurality of extents of the file system objects, an indication of a checksum algorithm applied to the extent selected from among a plurality of different checksum algorithms and a checksum value for the extent; and wherein the file system is configured to, in response to receiving an invocation of an operation to change a checksum algorithm applied to an extent of a file system object: compute a new checksum value for data read from storage for the extent using the new checksum algorithm, and store an indication of the new checksum algorithm and the new checksum value associated with the extent; a processing system comprising a memory, with computer program code for the file system stored in the memory that, when executed by the processing system, configures the processing system to: respond to requests from applications to the file system to access the file system objects, for each extent to be accessed, apply the checksum algorithm indicated for the extent in the storage. storage configured to store data including, for each extent of a plurality of extents of the file system objects, an indication of a checksum algorithm applied to the extent selected from among a plurality of different checksum algorithms and a checksum value for the extent; and wherein the file system is configured to, in response to receiving an invocation of an operation to change a checksum algorithm applied to an extent of a file system object: compute a new checksum value for data read from storage for the extent using the new checksum algorithm, and store an indication of the new checksum algorithm and the new checksum value associated with the extent; compute a new checksum value for data read from storage for the extent using the new checksum algorithm, and store an indication of the new checksum algorithm and the new checksum value associated with the extent; a processing system comprising a memory, with computer program code for the file system stored in the memory that, when executed by the processing system, configures the processing system to: respond to requests from applications to the file system to access the file system objects, for each extent to be accessed, apply the checksum algorithm indicated for the extent in the storage. respond to requests from applications to the file system to access the file system objects, for each extent to be accessed, apply the checksum algorithm indicated for the extent in the storage.
A control method, the method being applied to a power system, the power system comprising a power battery, a permanent magnet motor, and an inverter, wherein the method comprising: obtaining a battery cell temperature of the power battery; and sending a first control signal to the inverter when the battery cell temperature meets a preset power battery heating condition, wherein the first control signal is configured to control the inverter to convert a current provided by the power battery into an alternating current with a randomly changing frequency, and the alternating current with a randomly changing frequency is configured to supply power to the permanent magnet motor; being the method characterized in that before the sending a first control signal to the inverter, the method further comprises: generating a plurality of set frequencies randomly, and determining duration of each set frequency according to each set frequency; determining a reference value sequence of a d-axis component according to the set frequencies and the duration of each set frequency, and setting a reference value sequence of a q-axis component to a zero sequence; and generating the first control signal according to the reference value sequence of the d-axis component, the reference value sequence of the q-axis component, and a motor parameter of the permanent magnet motor. obtaining a battery cell temperature of the power battery; and sending a first control signal to the inverter when the battery cell temperature meets a preset power battery heating condition, wherein the first control signal is configured to control the inverter to convert a current provided by the power battery into an alternating current with a randomly changing frequency, and the alternating current with a randomly changing frequency is configured to supply power to the permanent magnet motor; being the method characterized in that before the sending a first control signal to the inverter, the method further comprises: generating a plurality of set frequencies randomly, and determining duration of each set frequency according to each set frequency; determining a reference value sequence of a d-axis component according to the set frequencies and the duration of each set frequency, and setting a reference value sequence of a q-axis component to a zero sequence; and generating the first control signal according to the reference value sequence of the d-axis component, the reference value sequence of the q-axis component, and a motor parameter of the permanent magnet motor. generating a plurality of set frequencies randomly, and determining duration of each set frequency according to each set frequency; determining a reference value sequence of a d-axis component according to the set frequencies and the duration of each set frequency, and setting a reference value sequence of a q-axis component to a zero sequence; and generating the first control signal according to the reference value sequence of the d-axis component, the reference value sequence of the q-axis component, and a motor parameter of the permanent magnet motor.
An in vitro method for detection of an acquired resistance to the therapeutic effects of gefitinib or erlotinib in a subject that is suffering from or suspected of having lung cancer, wherein the method comprises the steps of: a) providing a sample that has been obtained from the subject, and b) probing the sample with a means for selectively detecting a nucleotide sequence comprising a mutant T at the position corresponding to base 2369 of EGFR cDNA (SEQ ID No: 1); c) identifying that the base at said position is T; wherein finding that the mutant form is present indicates that the cancer is developing acquired resistance to the therapeutic effects of gefitinib or erlotinib, wherein the patient has been treated with gefitinib or erlotinib before the sample has been obtained from the patient, and the patient was responsive to gefitinib or erlotinib when it is first administered. a) providing a sample that has been obtained from the subject, and b) probing the sample with a means for selectively detecting a nucleotide sequence comprising a mutant T at the position corresponding to base 2369 of EGFR cDNA (SEQ ID No: 1); c) identifying that the base at said position is T;
A bodily fluid specimen collection and assay device comprising: - a bodily fluid collection cup comprising a bottom and a surrounding wall defining a main collection chamber and an assaying test strip viewing window define on the said wall of the bodily fluid collection cup comprising a damming rib; - an integral hinged lid integrally hinged to the said bodily fluid collection cup; - a magazine supporting member disposed within the main collection chamber, the said magazine supporting member comprising a plurality of flow ports disposed at the lower section of the magazine supporting member - a test strip magazine comprising: a plurality of recessed slots each of which is configured to accommodate an assaying test strip; a damming device disposed on each recessed slot; an outward flow port disposed on each damming device; disposed at a position higher than the position of the flow ports on the magazine supporting member; and a raised rib positioned to match the height of the damming rib; wherein the damming rib, the raised rib, the test strip magazine and the magazine supporting member engaged to create a differential pressure chamber. - a bodily fluid collection cup comprising a bottom and a surrounding wall defining a main collection chamber and an assaying test strip viewing window define on the said wall of the bodily fluid collection cup comprising a damming rib; - an integral hinged lid integrally hinged to the said bodily fluid collection cup; - a magazine supporting member disposed within the main collection chamber, the said magazine supporting member comprising a plurality of flow ports disposed at the lower section of the magazine supporting member - a test strip magazine comprising: a plurality of recessed slots each of which is configured to accommodate an assaying test strip; a damming device disposed on each recessed slot; an outward flow port disposed on each damming device; disposed at a position higher than the position of the flow ports on the magazine supporting member; and a raised rib positioned to match the height of the damming rib; a plurality of recessed slots each of which is configured to accommodate an assaying test strip; a damming device disposed on each recessed slot; an outward flow port disposed on each damming device; disposed at a position higher than the position of the flow ports on the magazine supporting member; and a raised rib positioned to match the height of the damming rib;
A method for manufacturing an electrochemical device, the method comprising the steps of: preparing a positive electrode, the positive electrode including a first current collector and a positive electrode layer containing a conductive polymer; preparing a negative electrode, the negative electrode including a second current collector and a negative electrode layer; and sealing the positive electrode, the negative electrode, and an electrolytic solution in an exterior body, characterized in that the step of preparing the positive electrode includes a step of holding the positive electrode in depressurized atmosphere and then introducing gas containing CO 2 as a primary component into the depressurized atmosphere. preparing a positive electrode, the positive electrode including a first current collector and a positive electrode layer containing a conductive polymer; preparing a negative electrode, the negative electrode including a second current collector and a negative electrode layer; and sealing the positive electrode, the negative electrode, and an electrolytic solution in an exterior body, characterized in that the step of preparing the positive electrode includes a step of holding the positive electrode in depressurized atmosphere and then introducing gas containing CO 2 as a primary component into the depressurized atmosphere.
A method for group optical channel shared protection, which is used for a ring network constituted by connecting a plurality of nodes with two fibers with a relation of mutually working and backing up, wherein the nodes are classified into three categories: source node, destination node and intermediate node; and wherein the nodes are adapted to accomplish Add and Drop of a service signal wherein each of the plurality of nodes performs the following steps when a failure occurs: combining optical wavelengths affected by the failure, whose source node is a current node, on a working fiber into a first group, and switching the first group to a backup fiber; combining optical wavelengths, whose destination node is the current node, on the backup fiber into a second group, and switching the second group to the working fiber; combining optical wavelengths, whose destination node is not the current node, on the backup fiber into a third group, and making the third group transparently pass through the current node; and blocking or stripping off each backup wavelength transferred on the backup fiber according to source and destination information of each backup wavelength to prevent the backup wavelength from forming a loopback. combining optical wavelengths affected by the failure, whose source node is a current node, on a working fiber into a first group, and switching the first group to a backup fiber; combining optical wavelengths, whose destination node is the current node, on the backup fiber into a second group, and switching the second group to the working fiber; combining optical wavelengths, whose destination node is not the current node, on the backup fiber into a third group, and making the third group transparently pass through the current node; and blocking or stripping off each backup wavelength transferred on the backup fiber according to source and destination information of each backup wavelength to prevent the backup wavelength from forming a loopback.
A polymeric yarn composition having antimicrobial and/or antibacterial properties for textile materials, the polymeric yarn composition comprising: (i) an herbal masterbatch, preferably in a range of 0.01% w/w to 10% w/w, the herbal masterbatch comprising: (a) an herbal component having hydrogenated extract of Turmeric, preferably in a range of 1% w/w to 75% w/w, and (b) a carrier polymer having at least one of: polybutylene terephthalate, polyethylene terephthalate, or polyamides, polypropylene, wherein the carrier polymer is preferably in a range of 25% w/w to 99% w/w; and (ii) a base polymer having one of polybutylene terephthalate or polyethylene terephthalate, or polyamides, or polypropylene, preferably in a range of 90% w/w to 99.99% w/w, wherein the herbal masterbatch and the base polymer are melted and extruded together at a temperature in a range of 175°C to 300°C to obtain a polymeric yarn having the herbal component in a range of 0.01% to 10% in weight of the polymeric yarn. (i) an herbal masterbatch, preferably in a range of 0.01% w/w to 10% w/w, the herbal masterbatch comprising: (a) an herbal component having hydrogenated extract of Turmeric, preferably in a range of 1% w/w to 75% w/w, and (b) a carrier polymer having at least one of: polybutylene terephthalate, polyethylene terephthalate, or polyamides, polypropylene, wherein the carrier polymer is preferably in a range of 25% w/w to 99% w/w; and (a) an herbal component having hydrogenated extract of Turmeric, preferably in a range of 1% w/w to 75% w/w, and (b) a carrier polymer having at least one of: polybutylene terephthalate, polyethylene terephthalate, or polyamides, polypropylene, wherein the carrier polymer is preferably in a range of 25% w/w to 99% w/w; and (ii) a base polymer having one of polybutylene terephthalate or polyethylene terephthalate, or polyamides, or polypropylene, preferably in a range of 90% w/w to 99.99% w/w,
A component assembly comprising a sheet metal part and a nut element attached thereto, the nut element having a thread and being arranged in an opening of the sheet metal part and being adapted to receive a bolt element having a shaft part with a thread and a head part of larger radial dimensions, characterised in that the nut element is introduced into or attached to the sheet metal part as a press-in element or as a rivet element, in that the sheet metal part has at least one hole adjacent to the nut element which is not covered over by the nut element but can be covered over by the head part of the screwed-in bolt element, in that the sheet metal part lies in a common plane in the region of the attachment of the nut element and also in the region of the bolt head and in that a sealing ring is provided between the head part of the screwed-in bolt element and the sheet metal part.
A pre-film liquid fuel cartridge, comprising: an axial centerline; a primary liquid fuel passage; a plurality of inner fuel ports and a plurality of outer fuel ports in fluid communication with the primary liquid fuel passage; an inner pre-filming surface defined downstream from the plurality of inner fuel ports, the inner pre-filming surface terminating at a first shear edge; an outer pre-filming surface defined downstream from the plurality of outer fuel ports, the outer pre-filming surface terminating at a second shear edge; and wherein the first and second shear edges, are relatively oriented so that a first pre-filmed liquid fuel sheet exiting the first shear edge intersects with a second pre-filmed liquid fuel sheet exiting the second shear edge characterized in that the inner pre-filming surface and the outer pre-filming surface are oriented in a radially outwardly direction with respect to the axial centerline of the pre-film liquid fuel cartridge. an axial centerline; a primary liquid fuel passage; a plurality of inner fuel ports and a plurality of outer fuel ports in fluid communication with the primary liquid fuel passage; an inner pre-filming surface defined downstream from the plurality of inner fuel ports, the inner pre-filming surface terminating at a first shear edge; an outer pre-filming surface defined downstream from the plurality of outer fuel ports, the outer pre-filming surface terminating at a second shear edge; and wherein the first and second shear edges, are relatively oriented so that a first pre-filmed liquid fuel sheet exiting the first shear edge intersects with a second pre-filmed liquid fuel sheet exiting the second shear edge characterized in that the inner pre-filming surface and the outer pre-filming surface are oriented in a radially outwardly direction with respect to the axial centerline of the pre-film liquid fuel cartridge.
An apparatus for controlling ink pressure in a printhead, the apparatus comprising: an integrally formed structure having: at least one control reservoir (10, 10') separated into first (14, 14') and second (15, 15') chambers by a weir (13, 13'); at least one inlet passageway (11, 11'), extending from the first chamber (14, 14') to an inlet port (21, 21') on an edge of the structure, for supplying ink from a remote source into the first chamber (14, 14') of the reservoir (10, 10'); at least one fluid outlet passageway (20, 20'), extending from the second chamber (15, 15') to an outlet port (23, 23') on an edge of the structure, for recirculating fluid from the reservoir (10, 10') to the remote source of ink; at least one ink supply port (22, 22'), in communication with the first chamber (14, 14'), for supplying ink to, or receiving ink from, a printhead; and a pressure control system having a pressure sensing passageway, extending from the reservoir (10, 10') to a pressure port (26, 26') on the edge of the structure, for sensing the air pressure within the reservoir (10, 10'), wherein the pressure sensing passageway includes an air chamber (24, 24'), wherein the air chamber (24, 24') includes one or more baffles (25, 25'). at least one control reservoir (10, 10') separated into first (14, 14') and second (15, 15') chambers by a weir (13, 13'); at least one inlet passageway (11, 11'), extending from the first chamber (14, 14') to an inlet port (21, 21') on an edge of the structure, for supplying ink from a remote source into the first chamber (14, 14') of the reservoir (10, 10'); at least one fluid outlet passageway (20, 20'), extending from the second chamber (15, 15') to an outlet port (23, 23') on an edge of the structure, for recirculating fluid from the reservoir (10, 10') to the remote source of ink; at least one ink supply port (22, 22'), in communication with the first chamber (14, 14'), for supplying ink to, or receiving ink from, a printhead; and a pressure control system having a pressure sensing passageway, extending from the reservoir (10, 10') to a pressure port (26, 26') on the edge of the structure, for sensing the air pressure within the reservoir (10, 10'), wherein the pressure sensing passageway includes an air chamber (24, 24'), wherein the air chamber (24, 24') includes one or more baffles (25, 25').
A pump assembly, comprising: a raceway; a rotor spaced from the raceway; a rotor motor configured to rotate the rotor to urge fluid through a tube disposed between the raceway and the rotor; and a loading motor coupled to the rotor and configured to move the rotor rotationally relative to the raceway, wherein the loading motor is energizable to move the rotor between the pump position and the tube load position. a raceway; a rotor spaced from the raceway; a rotor motor configured to rotate the rotor to urge fluid through a tube disposed between the raceway and the rotor; and a loading motor coupled to the rotor and configured to move the rotor rotationally relative to the raceway, wherein the loading motor is energizable to move the rotor between the pump position and the tube load position.
A method of determining configuration of interferential filtering means for an optical lens comprising an optical substrate (110; 210; 310; 410; 510; 610) for a user, the method comprising: providing a first set of parameters representative of (i) at least one main line of sight of the user, (ii) the distance between the optical substrate and an eye of the user, and (iii) a size of a retinal area to be protected determining a first selected range of angles of incidence based on the first set of parameters, wherein the determined range of angles of incidence is defined by all the incidence angles between i'1 and i'2 which are the incidence angles of the peripheral rays of light that reach the borders of the area of the retina to be protected; providing a second set of parameters characterising, for the user, a range of wavelengths to be inhibited, at least partially; determining a first selected range of wavelengths of incident light to be inhibited, at least partially, based on the second set of parameters; and configuring a first selective interferential filtering means and a first zone of a surface of the optical substrate based on the first selected range of angles of incidence and the first selected range of wavelengths such that the first selective interferential filtering means is operable to inhibit, at a first rate of rejection, transmission of the first selected range of wavelengths of incident light, incident on the first zone within the first selected range of angles of incidence. providing a first set of parameters representative of (i) at least one main line of sight of the user, (ii) the distance between the optical substrate and an eye of the user, and (iii) a size of a retinal area to be protected determining a first selected range of angles of incidence based on the first set of parameters, wherein the determined range of angles of incidence is defined by all the incidence angles between i'1 and i'2 which are the incidence angles of the peripheral rays of light that reach the borders of the area of the retina to be protected; providing a second set of parameters characterising, for the user, a range of wavelengths to be inhibited, at least partially; determining a first selected range of wavelengths of incident light to be inhibited, at least partially, based on the second set of parameters; and configuring a first selective interferential filtering means and a first zone of a surface of the optical substrate based on the first selected range of angles of incidence and the first selected range of wavelengths such that the first selective interferential filtering means is operable to inhibit, at a first rate of rejection, transmission of the first selected range of wavelengths of incident light, incident on the first zone within the first selected range of angles of incidence.
A fusion polypeptide that is capable of binding both CD137 and HER2/neu, wherein the fusion polypeptide comprises at least two subunits, wherein the first subunit comprises an immunoglobulin having binding specificity for HER2/neu, and wherein the second subunit comprises a lipocalin mutein having binding specificity for CD137, wherein the lipocalin mutein is linked, via a peptide linker, to the C-terminus of the immunoglobulin heavy chain constant region, the N-terminus of the immunoglobulin heavy chain variable region, and/or the C-terminus of the immunoglobulin light chain constant region, wherein the amino acid sequence of the lipocalin mutein has at least 90% sequence identity to an amino acid sequence selected from the group consisting of SEQ ID NOs: 2 and 32-46.