mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for mass spectrometry, comprising a portion generator for creating localized analyte portions in synchronization with trigger pulses; a transfer system coupled to the portion generator for transporting the localized analyte portions; a plasma ionizer unit coupled to the transfer system for vaporizing, atomizing and ionizing received analyte portions with plasma; a mass analyzer coupled to the plasma ionizer unit for analyzing elemental content of received analyte portions, the mass analyzer comprising at least one detector; a data acquisition electronics connected to the at least one detector for acquiring signals generated by the at least one detector; characterized by a signal delay device for receiving the trigger pulses and delivering delayed signals corresponding to the trigger pulses to account for a delay experienced by the analyte portions to be analyzed between portion generation and detection, wherein the signal delay device is an overlapping signal delay device capable of simultaneously processing a plurality of trigger pulses. a portion generator for creating localized analyte portions in synchronization with trigger pulses; a transfer system coupled to the portion generator for transporting the localized analyte portions; a plasma ionizer unit coupled to the transfer system for vaporizing, atomizing and ionizing received analyte portions with plasma; a mass analyzer coupled to the plasma ionizer unit for analyzing elemental content of received analyte portions, the mass analyzer comprising at least one detector; a data acquisition electronics connected to the at least one detector for acquiring signals generated by the at least one detector; characterized by a signal delay device for receiving the trigger pulses and delivering delayed signals corresponding to the trigger pulses to account for a delay experienced by the analyte portions to be analyzed between portion generation and detection, wherein the signal delay device is an overlapping signal delay device capable of simultaneously processing a plurality of trigger pulses.
A battery pack comprising: at least a first battery cell and a second battery cell ; and a dual-cell supervisor circuit positioned to bridge the first and second battery cells and connected to monitor the first and second battery cells, wherein the dual-cell supervisor circuit comprises current injection and impedance-detection circuitry for separately measuring a voltage, impedance, and temperature at each of the first and second battery cells, wherein current injection circuitry and impedance-detection circuitry are each coupled to receive a combined supply voltage provided by both battery cells. at least a first battery cell and a second battery cell ; and a dual-cell supervisor circuit positioned to bridge the first and second battery cells and connected to monitor the first and second battery cells, wherein the dual-cell supervisor circuit comprises current injection and impedance-detection circuitry for separately measuring a voltage, impedance, and temperature at each of the first and second battery cells, wherein current injection circuitry and impedance-detection circuitry are each coupled to receive a combined supply voltage provided by both battery cells.
A method, comprising: receiving audio data frames, the audio data frames included in audio data packets received at actual packet arrival times during a time interval that corresponds with a conversation analysis segment ; analyzing the audio data of the conversation analysis segment to determine network jitter dynamics data and conversational interactivity data, wherein the network jitter dynamics data provides an indication of jitter in a network that relays the audio data packets and wherein the conversational interactivity data provides an indication of interactivity between participants of a conversation represented by the audio data frame ; selecting, based on the network jitter dynamics and the conversational interactivity data of the audio data, a jitter buffer control mode from at least three jitter buffer control modes, wherein each jitter buffer control mode corresponds to a range of jitter buffer sizes; and determining a jitter buffer size based on the selected jitter buffer control mode. receiving audio data frames, the audio data frames included in audio data packets received at actual packet arrival times during a time interval that corresponds with a conversation analysis segment ; analyzing the audio data of the conversation analysis segment to determine network jitter dynamics data and conversational interactivity data, wherein the network jitter dynamics data provides an indication of jitter in a network that relays the audio data packets and wherein the conversational interactivity data provides an indication of interactivity between participants of a conversation represented by the audio data frame ; selecting, based on the network jitter dynamics and the conversational interactivity data of the audio data, a jitter buffer control mode from at least three jitter buffer control modes, wherein each jitter buffer control mode corresponds to a range of jitter buffer sizes; and determining a jitter buffer size based on the selected jitter buffer control mode.
An engineered polypeptide having ketoreductase activity, the engineered polypeptide comprising an amino acid sequence with at least 80% sequence identity to SEQ ID NO:4 and at least one substitution selected from a proline at the position of the polypeptide corresponding to position D150 of SEQ ID NO:4, a residue other than proline at the position of the polypeptide corresponding to position 94 of SEQ ID NO: 4, a residue other than phenylalanine at the position of the polypeptide corresponding to position 145 of SEQ ID NO:4, a residue other than phenylalanine at the position of the polypeptide corresponding to position 249 of SEQ ID NO:4, a residue other than valine at the position of the polypeptide corresponding to position 144 of SEQ ID NO:4, and a residue other than proline at the position of the polypeptide corresponding to position 190 of SEQ ID NO:4, and wherein said polypeptide has greater 2a:2c product selectivity as compared to SEQ ID NO:4 when using compound as a substrate, wherein compound has the structure product 2a has the structure and product 2c has the structure
A compound for use in a method of treating multiple myeloma, wherein the method comprises administering to a patient in need thereof a therapeutically effective amount of the compound in combination with a second active agent, wherein the compound is Compound 1 of formula or an enantiomer, mixture of enantiomers, tautomer, isotopolog, or pharmaceutically acceptable salt thereof; and wherein the second active agent is one or more of a BTK inhibitor, an mTOR inhibitor, a PIM inhibitor, an IGF-1R inhibitor, an MEK inhibitor, an XPO1 inhibitor, a DOT1L inhibitor, an EZH2 inhibitor, or a JAK2 inhibitor.
An integrated circuit comprising: a virtually indexed cache configured to output to an outer memory system one or more bits of a virtual index of a cache access as one or more bits of a requestor identifier, receive one or more bits of a destination identifier for a probe request from the outer memory system and use the one or more bits of the destination identifier as part of an index to check a state of a cache block.
A system, comprising: a subsea chemical injection system configured to inject a chemical into a well, wherein the subsea chemical injection system comprises: a subsea choke configured to flow the chemical; and a choke trim of the subsea choke, wherein the choke trim comprises a flow path having a cross-sectional area and a length, and the cross-sectional area and length are each adjustable independent from one another. a subsea choke configured to flow the chemical; and a choke trim of the subsea choke, wherein the choke trim comprises a flow path having a cross-sectional area and a length, and the cross-sectional area and length are each adjustable independent from one another.
An isolated monoclonal antibody that binds to B7-H4, wherein the antibody comprises (i) HVR-H1 comprising the amino acid sequence of SEQ ID NO: 39, (ii) HVR-H2 comprising the amino acid sequence of SEQ ID NO: 40, (iii) HVR-H3 comprising the amino acid sequence of SEQ ID NO: 41; (iv) HVR-L1 comprising the amino acid sequence of SEQ ID NO: 42, (v) HVR-L2 comprising the amino acid sequence of SEQ ID NO: 43, and (vi) HVR-L3 comprising the amino acid sequence of SEQ ID NO: 44.
A gas distribution device , characterized by comprising: a plurality of gas distribution pipes arranged in parallel and at an interval, each of the gas distribution pipes being provided with a plurality of gas nozzles ; and at least one gas delivery pipe communicated with each of the gas distribution pipes , each of the gas distribution pipes being connected into an integral structure; the gas delivery pipe being used for supplying gas into each of the gas distribution pipes ; the gas delivery pipe being provided with a gas delivery interface , and the gas delivery interface being configured to connect a gas inlet valve, characterized in that the gas distribution pipes are integrally formed with the gas delivery pipes through a die casting process.
A device comprising: a processor operative to provide pixel data and audio data; and a plurality of differential lane transmission circuits (19a,.. , 19n), operatively coupled to the processor, and operative to provide, across respective differential lines (20a, .. , 20n), non-redundant data and at least one of redundant control symbols or redundant control data and operative to skew the at least one of respective redundant control symbols or redundant control data in time across the plurality of differential lane transmission circuits. a processor operative to provide pixel data and audio data; and a plurality of differential lane transmission circuits (19a,.. , 19n), operatively coupled to the processor, and operative to provide, across respective differential lines (20a, .. , 20n), non-redundant data and at least one of redundant control symbols or redundant control data and operative to skew the at least one of respective redundant control symbols or redundant control data in time across the plurality of differential lane transmission circuits.
A human-machine interaction method, wherein the method comprises: detecting (S101) and collecting sensing information of a companion object of a target object and emotion information of the target object that is obtained when the target object interacts with the companion object, wherein the sensing information comprises at least one of view information and voice information, and the emotion information comprises at least one of view information and voice information; and extracting (S102) an emotion feature quantity based on the emotion information, determining, based on the emotion feature quantity, an emotional pattern used by the target object to interact with the companion object, determining, based on the emotional pattern, a degree of interest of the target object in the companion object, extracting behavioral data of the companion object from the sensing information based on the degree of interest, and screening the behavioral data to obtain simulated object data, wherein the simulated object data is used by a robot to simulate the companion object, and the simulated object data is used to describe the companion object. detecting (S101) and collecting sensing information of a companion object of a target object and emotion information of the target object that is obtained when the target object interacts with the companion object, wherein the sensing information comprises at least one of view information and voice information, and the emotion information comprises at least one of view information and voice information; and extracting (S102) an emotion feature quantity based on the emotion information, determining, based on the emotion feature quantity, an emotional pattern used by the target object to interact with the companion object, determining, based on the emotional pattern, a degree of interest of the target object in the companion object, extracting behavioral data of the companion object from the sensing information based on the degree of interest, and screening the behavioral data to obtain simulated object data, wherein the simulated object data is used by a robot to simulate the companion object, and the simulated object data is used to describe the companion object.
A sanitary fitting having a fitting housing with at least one mixing unit for mixing cold water and hot water to form mixed water, wherein the mixed water can be conducted via a first flow path and a second flow path to an outlet of the fitting housing and wherein the first flow path and the second flow path can be closed, at least partially, by a first valve and a second valve , respectively, such that an outflow of the mixed water from the outlet can be controlled by the first valve and by the second valve independently of each other.
An ion source for a mass spectrometer comprising: an Atmospheric Pressure lonisation ("API") ionisation device comprising an Electrospray ion source, arranged and adapted to emit a stream of charged droplets; and characterised by : one or more ultrasonic transmitters or sonotrodes arranged and adapted to create one or more acoustic standing waves downstream of said ionisation device; wherein said one or more acoustic standing waves are arranged and adapted: to further nebulise said stream of droplets; and to result in a reduction of the average size of droplets in said stream of droplets. one or more ultrasonic transmitters or sonotrodes arranged and adapted to create one or more acoustic standing waves downstream of said ionisation device; wherein said one or more acoustic standing waves are arranged and adapted: to further nebulise said stream of droplets; and to result in a reduction of the average size of droplets in said stream of droplets. to further nebulise said stream of droplets; and to result in a reduction of the average size of droplets in said stream of droplets.
A preparation method for 2-mercaptobenzothiazole, wherein an aniline method is adopted to perform reaction in the presence of a catalyst to prepare the 2-mercaptobenzothiazole, the catalyst comprising sulfonic acid type imidazolium ionic liquid.
A pharmaceutical composition, comprising: an orally disintegrating tablet comprising a disintegrant, a binder, and a plurality of solid lipid particles, said solid lipid particles comprising an active agent and a lipid matrix that includes at least one of (i) a mixture of monoglycerides, diglycerides, and triglycerides having carbon numbers ranging from C6 to C40, (ii) esters of fatty acids having carbon numbers ranging from C6 to C12 with ethylene glycol or propylene glycol, (iii) a mixture of triglycerides having medium chain length, or (iv) a mixture of glycerides having carbon numbers ranging from C18 to C24, wherein said binder is present in an amount of from 10 weight percent to 60 weight percent of the total weight of the tablet, wherein said solid lipid particles have an average particle size of 500 micrometers or less, and wherein the solid lipid particles are present in an amount of from 1 weight percent to 75 weight percent of the total tablet weight, and wherein said lipid matrix is present in an amount of 25 weight percent or greater of the total weight of said solid lipid particles.
A hose clamp made of a clamping band comprising band sections which overlap one another in the closed state of the hose clamp and on which hooks are arranged for closing the hose clamp, and a tightening device arranged in the outer band section for tightening the hose clamp around an object to be clamped, wherein the tightening device comprises two outwardly protruding legs and a bar connecting the legs, characterized in that at least one corrugated bead extending between the edges of the clamping band and parallel to them is formed on the inner band section of the clamping band as a sequence of elongated bead depressions formed in the longitudinal direction of the clamping band, so that at least a part of the corrugated bead is located between the tightening device and the object to be clamped in the closed state of the clamping band. wherein the tightening device comprises two outwardly protruding legs and a bar connecting the legs, characterized in that at least one corrugated bead extending between the edges of the clamping band and parallel to them is formed on the inner band section of the clamping band as a sequence of elongated bead depressions formed in the longitudinal direction of the clamping band, so that at least a part of the corrugated bead is located between the tightening device and the object to be clamped in the closed state of the clamping band.
A terminal assembly comprising: an electric wire (W); and a terminal being connected to the electric wire (W), the terminal including a box , and an electric wire connecting unit , wherein a cross section of the box in a direction perpendicular to a front-rear direction (X) has a rectangular shape, the box includes a bottom plate , a first side plate , a second side plate , an inner plate , and a ceiling plate , the first side plate and the second side plate face each other in a width direction (Y), the bottom plate and the inner plate face each other in a height direction (Z), the ceiling plate is superimposed on the inner plate on a side of the inner plate opposite to a side thereof facing the bottom plate , has a notch formed at the midpoint in the front-rear direction (X), and includes a front ceiling plate on a front direction side and a rear ceiling plate on a rear direction side, the front ceiling plate includes a first locked unit on the rear direction side (X2), the rear ceiling plate includes a projection part engagement surface on the front direction side (X1) and a second locked unit on the rear direction side (X2), characterized in that the inner plate includes a projection part that projects on the ceiling plate side, and the projection part is engaged with the projection part engagement surface in the front-rear direction (X). an electric wire (W); and a terminal being connected to the electric wire (W), the terminal including a box , and an electric wire connecting unit , wherein a cross section of the box in a direction perpendicular to a front-rear direction (X) has a rectangular shape, the box includes a bottom plate , a first side plate , a second side plate , an inner plate , and a ceiling plate , the first side plate and the second side plate face each other in a width direction (Y), the bottom plate and the inner plate face each other in a height direction (Z), the ceiling plate is superimposed on the inner plate on a side of the inner plate opposite to a side thereof facing the bottom plate , has a notch formed at the midpoint in the front-rear direction (X), and includes a front ceiling plate on a front direction side and a rear ceiling plate on a rear direction side, the front ceiling plate includes a first locked unit on the rear direction side (X2), the rear ceiling plate includes a projection part engagement surface on the front direction side (X1) and a second locked unit on the rear direction side (X2), characterized in that the inner plate includes a projection part that projects on the ceiling plate side, and the projection part is engaged with the projection part engagement surface in the front-rear direction (X).
An absorbent article comprising: a liquid permeable topsheet , a liquid impermeable backsheet , and an absorbent core positioned between said topsheet and backsheet , wherein the absorbent core comprises at least a top layer (L1) and a bottom layer (L2) wherein the bottom layer (L2) is positioned between the top layer (L1) and the backsheet , and wherein said absorbent material is contained within at least one core wrap substrate enclosing said absorbent material therein, characterized in that the at least top layer (L1) and a bottom layer (L2) are directly stacked one on top of the other to form a contact zone (Zc) where the top layer (L1) directly adjoins to the bottom layer (L2), and in that the top layer (L1) comprises one or more first superabsorbent polymer grades (SAP1) and the bottom layer (L2) comprises one or more second superabsorbent polymer grades (SAP2), wherein the first superabsorbent polymer grades (SAP1) have an AUL that is greater than the AUL of second superabsorbent polymer grades (SAP2), and wherein the first superabsorbent polymer grades (SAP1) have an AUL, as measured according to the test method herein, of greater than 15 g/g, and wherein the second superabsorbent polymer grades (SAP2) have an AUL of less than 15 g/g, and wherein the at least a top layer (L1) and a bottom layer (L2) each comprise an absorbent material , said absorbent material comprising a mixture, or blend, of cellulose fibers and superabsorbent polymers. a liquid permeable topsheet , a liquid impermeable backsheet , and an absorbent core positioned between said topsheet and backsheet , wherein the absorbent core comprises at least a top layer (L1) and a bottom layer (L2) wherein the bottom layer (L2) is positioned between the top layer (L1) and the backsheet , and wherein said absorbent material is contained within at least one core wrap substrate enclosing said absorbent material therein, characterized in that the at least top layer (L1) and a bottom layer (L2) are directly stacked one on top of the other to form a contact zone (Zc) where the top layer (L1) directly adjoins to the bottom layer (L2), and in that the top layer (L1) comprises one or more first superabsorbent polymer grades (SAP1) and the bottom layer (L2) comprises one or more second superabsorbent polymer grades (SAP2), wherein the first superabsorbent polymer grades (SAP1) have an AUL that is greater than the AUL of second superabsorbent polymer grades (SAP2), and wherein the first superabsorbent polymer grades (SAP1) have an AUL, as measured according to the test method herein, of greater than 15 g/g, and wherein the second superabsorbent polymer grades (SAP2) have an AUL of less than 15 g/g, and wherein the at least a top layer (L1) and a bottom layer (L2) each comprise an absorbent material , said absorbent material comprising a mixture, or blend, of cellulose fibers and superabsorbent polymers.
A method of preparing a treated glass frit comprising: smelting raw material to produce a glass batch; quenching the glass batch to produce an amorphous solid; milling the amorphous solid to produce glass frit; and mixing a grain-boundary-healing additive with the glass frit to thereby prepare the treated glass frit, wherein the grain-boundary-healing additive comprises an organometallic compound containing at least one selected from the group consisting of Li, Na, K, Ba, V, Mn, Mo, W, In, Ga, Si, P, Fe, Ta, Sb, Bi, Sn, Ge, Te, Y and As. smelting raw material to produce a glass batch; quenching the glass batch to produce an amorphous solid; milling the amorphous solid to produce glass frit; and mixing a grain-boundary-healing additive with the glass frit to thereby prepare the treated glass frit, wherein the grain-boundary-healing additive comprises an organometallic compound containing at least one selected from the group consisting of Li, Na, K, Ba, V, Mn, Mo, W, In, Ga, Si, P, Fe, Ta, Sb, Bi, Sn, Ge, Te, Y and As.