mhurhangee/patent-ind-claim-en huggingface dataset:
An electro-optical conversion system comprising: - an opto-mechanical conversion device including: ∘ a ring cavity formed by an optical waveguide which extends along an annular closed curve, ∘ a micromechanical resonator comprising at least one microcantilever , and ∘ a zipper type element integrated into the ring cavity, this element including a first arm and a second arm which extend parallel to each other, opposite each other, the first arm being made on a portion of the ring waveguide while the second arm is made on the microcantilever , the microcantilever and said guide portion being laterally separated from each other by a gap which varies at least locally when the microcantilever oscillates, and comprising - an electrical capacitor that includes a first electrode and a second electrode , the first electrode moving relative to the second electrode upon oscillation of said microcantilever . - an opto-mechanical conversion device including: ∘ a ring cavity formed by an optical waveguide which extends along an annular closed curve, ∘ a micromechanical resonator comprising at least one microcantilever , and ∘ a zipper type element integrated into the ring cavity, this element including a first arm and a second arm which extend parallel to each other, opposite each other, the first arm being made on a portion of the ring waveguide while the second arm is made on the microcantilever , the microcantilever and said guide portion being laterally separated from each other by a gap which varies at least locally when the microcantilever oscillates, and comprising ∘ a ring cavity formed by an optical waveguide which extends along an annular closed curve, ∘ a micromechanical resonator comprising at least one microcantilever , and ∘ a zipper type element integrated into the ring cavity, this element including a first arm and a second arm which extend parallel to each other, opposite each other, the first arm being made on a portion of the ring waveguide while the second arm is made on the microcantilever , the microcantilever and said guide portion being laterally separated from each other by a gap which varies at least locally when the microcantilever oscillates, and comprising - an electrical capacitor that includes a first electrode and a second electrode , the first electrode moving relative to the second electrode upon oscillation of said microcantilever .
A heat protection tube comprising: an outer layer comprising aluminum and having an outer surface and an inner surface; and an inner composite layer comprising an aluminum layer and a glass fiber layer, wherein the aluminum layer and the glass fiber layer are laminated together; wherein the aluminum layer of the inner composite layer is bonded to the inner surface of the outer layer; and wherein the glass fiber layer of the inner composite layer defines an interior space of the heat protection tube and wherein the glass fiber layer is at least partially coated with a polymer coating. an outer layer comprising aluminum and having an outer surface and an inner surface; and an inner composite layer comprising an aluminum layer and a glass fiber layer, wherein the aluminum layer and the glass fiber layer are laminated together; wherein the aluminum layer of the inner composite layer is bonded to the inner surface of the outer layer; and wherein the glass fiber layer of the inner composite layer defines an interior space of the heat protection tube and wherein the glass fiber layer is at least partially coated with a polymer coating.
A method for preparing a strand-specific library from a nucleic acid sample, comprising the steps of: i. fragmenting said nucleic acid sample, ii. generating a plurality of first nucleic acid strands by subjecting said fragmented nucleic acid to a first strand specific amplification by using first oligonucleotide primers, iii. generating a plurality of second nucleic acid strands by strand specific elongation using second oligonucleotide primers, and the plurality of first nucleic acid strands, and iv. ligating adapter to the 3' and 5' termini of the of double-stranded nucleic acid, v. wherein the first strand allows no adapter ligation at its 5' terminus and said second strand allows adapter ligation at its 5' terminus and, vi. cloning, sequencing or otherwise using the strand-specific library, wherein the ligation of the adaptors to the plurality of double stranded nucleic acids generated in step (iii) occurs on one strand; and wherein no further enzymatic reaction is required for step (iv) and (v). i. fragmenting said nucleic acid sample, ii. generating a plurality of first nucleic acid strands by subjecting said fragmented nucleic acid to a first strand specific amplification by using first oligonucleotide primers, iii. generating a plurality of second nucleic acid strands by strand specific elongation using second oligonucleotide primers, and the plurality of first nucleic acid strands, and iv. ligating adapter to the 3' and 5' termini of the of double-stranded nucleic acid, v. wherein the first strand allows no adapter ligation at its 5' terminus and said second strand allows adapter ligation at its 5' terminus and, vi. cloning, sequencing or otherwise using the strand-specific library,
A server device , comprising: a chassis , having at least one accommodating space , at least one first surface , at least one second surface , at least one opening and at least one front side , the at least one first surface and the at least one second surface facing each other and respectively located at two opposite sides of the at least one accommodating space , the at least one opening located at the at least one front side and connected to the at least one accommodating space ; and at least one server assembly , slidably disposed in the at least one accommodating space from the at least one opening , the at least one server assembly comprising a first server (21a, 21b,) and a second server (22a, 22b,), and the first server (21a, 21b,) closer to the at least one first surface than the second server ; wherein both the at least one first surface and the at least one front side are orthogonal to a reference plane (P), and an orthogonal projection of the first server (21a, 21b,) on the reference plane (P) partially overlaps an orthogonal projection of the second server on the reference plane (P). a chassis , having at least one accommodating space , at least one first surface , at least one second surface , at least one opening and at least one front side , the at least one first surface and the at least one second surface facing each other and respectively located at two opposite sides of the at least one accommodating space , the at least one opening located at the at least one front side and connected to the at least one accommodating space ; and at least one server assembly , slidably disposed in the at least one accommodating space from the at least one opening , the at least one server assembly comprising a first server (21a, 21b,) and a second server (22a, 22b,), and the first server (21a, 21b,) closer to the at least one first surface than the second server ; wherein both the at least one first surface and the at least one front side are orthogonal to a reference plane (P), and an orthogonal projection of the first server (21a, 21b,) on the reference plane (P) partially overlaps an orthogonal projection of the second server on the reference plane (P).
An animal litter comprising a blend of: i) compacted granules comprising expanded perlite fines and ii) coated granules, each coated granule comprising a non-agglomerated particle and a coating comprising a clumping agent on an outer surface of the particle, wherein the compacted granules are present in an amount from 5 wt. % to 25 wt. % i) compacted granules comprising expanded perlite fines and ii) coated granules, each coated granule comprising a non-agglomerated particle and a coating comprising a clumping agent on an outer surface of the particle, wherein the compacted granules are present in an amount from 5 wt. % to 25 wt. %
A method of making ( S )-norcoclaurine or ( S )-norlaudanosoline comprising: (a) providing at least one ( S )-norcoclaurine or ( S )-norlaudanosoline pathway precursor selected from a L-tyrosine derivative; and (b) contacting the ( S )-norcoclaurine or ( S )-norlaudanosoline pathway precursor with NCS, and optionally MAO, under reaction conditions permitting catalysis of the ( S )-norcoclaurine or ( S )-norlaudanosoline pathway precursor to form ( S )-norcoclaurine or ( S )-norlaudanosoline; and wherein the L-tyrosine derivative has the chemical formula (I): wherein R 1 represents hydrogen or hydroxyl; wherein R 2 represents hydrogen; and wherein R 3 represents an amino group -(NH 2 ); and wherein R 3 ' represents a hydrogen atom, provided R 1 represents hydroxyl; or wherein R 3 and R 3 ' taken together form a carbonyl group; and wherein MAO is a polypeptide having the sequence set forth in SEQ. ID. NO: 96; and wherein NCS is a polypeptide having a sequence selected from the group of sequences set forth as SEQ. ID. NO: 14; SEQ. ID. NO: 17; SEQ. ID. NO: 28; SEQ. ID. NO: 34 and SEQ. ID. NO: 42; or as encoded by SEQ. ID. NO: 109 or SEQ. ID. NO: 113. (a) providing at least one ( S )-norcoclaurine or ( S )-norlaudanosoline pathway precursor selected from a L-tyrosine derivative; and (b) contacting the ( S )-norcoclaurine or ( S )-norlaudanosoline pathway precursor with NCS, and optionally MAO, under reaction conditions permitting catalysis of the ( S )-norcoclaurine or ( S )-norlaudanosoline pathway precursor to form ( S )-norcoclaurine or ( S )-norlaudanosoline; and wherein R 1 represents hydrogen or hydroxyl; wherein R 2 represents hydrogen; and wherein R 3 represents an amino group -(NH 2 ); and wherein R 3 ' represents a hydrogen atom, provided R 1 represents hydroxyl; or wherein R 3 and R 3 ' taken together form a carbonyl group; and wherein MAO is a polypeptide having the sequence set forth in SEQ. ID. NO: 96; and wherein NCS is a polypeptide having a sequence selected from the group of sequences set forth as SEQ. ID. NO: 14; SEQ. ID. NO: 17; SEQ. ID. NO: 28; SEQ. ID. NO: 34 and SEQ. ID. NO: 42; or as encoded by SEQ. ID. NO: 109 or SEQ. ID. NO: 113.
A resin modified dental luting cement composition comprising (a) a polymerizable resin component; (b) a polyacidic polymer component; (c) a filler component comprising (c1) a particulate zinc oxide containing filler adapted to be reactive with the polyacidic polymer component in a cement reaction, and (c2) an inert particulate filler which cannot react with the polyacidic polymer in a cement reaction; (d) a redox initiator system for initiating polymerization of the polymerizable resin component, which comprises an oxidizing agent and a reducing agent; and (e) water, characterized in that the polymerizable resin component comprises a compound of the following formula (I): wherein R 1 and R 2 which may be the same or different, independently represent a hydrogen atom or a C 1-6 alkyl group or a C 1-6 fluoroalkyl group; R 3 which may the same or different when more than one R 3 is present, independently represent a hydrogen atom or a C 1-6 alkyl group or a C 1- 6 fluoroalkyl group; R 4 represents a hydrogen atom or a C 1-6 alkyl group or a C 1-6 fluoroalkyl group; a is an integer of from 1 to 4; b is 0 or an integer of from 1 to 9; and c is 0 or an integer of from 1 to 9. (a) a polymerizable resin component; (b) a polyacidic polymer component; (c) a filler component comprising (c1) a particulate zinc oxide containing filler adapted to be reactive with the polyacidic polymer component in a cement reaction, and (c2) an inert particulate filler which cannot react with the polyacidic polymer in a cement reaction; (c1) a particulate zinc oxide containing filler adapted to be reactive with the polyacidic polymer component in a cement reaction, and (c2) an inert particulate filler which cannot react with the polyacidic polymer in a cement reaction; (d) a redox initiator system for initiating polymerization of the polymerizable resin component, which comprises an oxidizing agent and a reducing agent; and (e) water, R 1 and R 2 which may be the same or different, independently represent a hydrogen atom or a C 1-6 alkyl group or a C 1-6 fluoroalkyl group; R 3 which may the same or different when more than one R 3 is present, independently represent a hydrogen atom or a C 1-6 alkyl group or a C 1- 6 fluoroalkyl group; R 4 represents a hydrogen atom or a C 1-6 alkyl group or a C 1-6 fluoroalkyl group; a is an integer of from 1 to 4; b is 0 or an integer of from 1 to 9; and c is 0 or an integer of from 1 to 9.
A compound that is 3-([[(4 R )-7-[methyl[4-propan-2-yl)phenyl]amino]-3,4-dihydro-2H-1-benzopyran-4-yl]methyl]amino)pyridine-4-carboxylic acid, represented by the structure: or a pharmaceutically acceptable salt thereof, for use in a method of treating a cancer associated with lysine demethylase 4 activity (a KDM4-associated cancer), the method comprising administering to a patient in need thereof a pharmaceutical composition comprising the compound or salt, and a pharmaceutically acceptable excipient, wherein the KDM4-associated cancer is selected from triple-negative breast cancer, colon cancer, Burkitt's lymphoma, or acute myeloid leukemia. or a pharmaceutically acceptable salt thereof, for use in a method of treating a cancer associated with lysine demethylase 4 activity (a KDM4-associated cancer), the method comprising administering to a patient in need thereof a pharmaceutical composition comprising the compound or salt, and a pharmaceutically acceptable excipient, wherein the KDM4-associated cancer is selected from triple-negative breast cancer, colon cancer, Burkitt's lymphoma, or acute myeloid leukemia.
A blind blade assembly for solar photovoltaic power generation, comprising: a blade frame provided with a mounting groove ; a plurality of solar cell panels disposed in a longitudinal direction in the mounting groove ; and fixing members for connecting electrodes between the solar cell panels and for fixing seams, wherein each of the fixing members is provided with fitting protrusions configured to be fitted into fitting holes provided at both sides of the mounting groove , characterized in that one side of the fixing member is further provided with a pressurization protrusion for pressurizing a connection point of the electrodes between the solar cell panels to connect the electrodes . a blade frame provided with a mounting groove ; a plurality of solar cell panels disposed in a longitudinal direction in the mounting groove ; and fixing members for connecting electrodes between the solar cell panels and for fixing seams, wherein each of the fixing members is provided with fitting protrusions configured to be fitted into fitting holes provided at both sides of the mounting groove , characterized in that one side of the fixing member is further provided with a pressurization protrusion for pressurizing a connection point of the electrodes between the solar cell panels to connect the electrodes .
An anthranilic acid ester compound wherein the compound is represented by the following formulae:
A combined power generation system comprising: a heat recovery steam generator configured to recover exhaust heat from a gas turbine to produce steam, the heat recovery steam generator comprising a high-pressure superheater and a reheater ; a steam turbine operated by receiving the produced steam, the steam turbine comprising a high-pressure turbine , a medium-pressure turbine , and a low-pressure turbine ; a condenser installed under the low-pressure turbine to condense the steam; a high-pressure steam line for supplying the high-pressure turbine with the steam produced by the high-pressure superheater ; a medium-pressure steam line for supplying the medium-pressure turbine with the steam that has passed through the high-pressure turbine ; and a high-pressure bypass line connected from the high-pressure steam line to the medium-pressure steam line ; characterized in that : the combined power generation system further comprising: an additional high-pressure bypass line connected from the high-pressure steam line to the condenser . a heat recovery steam generator configured to recover exhaust heat from a gas turbine to produce steam, the heat recovery steam generator comprising a high-pressure superheater and a reheater ; a steam turbine operated by receiving the produced steam, the steam turbine comprising a high-pressure turbine , a medium-pressure turbine , and a low-pressure turbine ; a condenser installed under the low-pressure turbine to condense the steam; a high-pressure steam line for supplying the high-pressure turbine with the steam produced by the high-pressure superheater ; a medium-pressure steam line for supplying the medium-pressure turbine with the steam that has passed through the high-pressure turbine ; and a high-pressure bypass line connected from the high-pressure steam line to the medium-pressure steam line ; characterized in that : the combined power generation system further comprising: an additional high-pressure bypass line connected from the high-pressure steam line to the condenser .
A liquid ejecting apparatus comprising: a nozzle (N) for ejecting liquid; a pressure chamber (C) communicating with the nozzle; a first individual flow path communicating with the pressure chamber; a second individual flow path communicating with the pressure chamber; a pressure generating unit comprising a piezoelectric element configured to change a pressure of the liquid in the pressure chamber; and a control unit for driving the pressure generating unit, wherein the liquid ejecting apparatus is arranged such that liquid is supplied into the pressure chamber through one of the first individual flow path and the second individual flow path, and at least a part of the liquid supplied into the pressure chamber is discharged via the other of the first individual flow path and the second individual flow path, and the control unit is configured to eject the liquid from the nozzle by using a first drive waveform, and the control unit is further configured to introduce air into the pressure chamber via the nozzle by driving the pressure generating unit, during a period in which the liquid is not ejected from the nozzle, by using a second drive waveform, and each of the first drive waveform and the second drive waveform includes a first waveform part for expanding a volume of the pressure chamber and a second waveform part for reducing the volume of the pressure chamber, and a magnitude of a slope of the first waveform part in the second drive waveform is larger than a magnitude of a slope of the first waveform part in the first drive waveform. a nozzle (N) for ejecting liquid; a pressure chamber (C) communicating with the nozzle; a first individual flow path communicating with the pressure chamber; a second individual flow path communicating with the pressure chamber; a pressure generating unit comprising a piezoelectric element configured to change a pressure of the liquid in the pressure chamber; and a control unit for driving the pressure generating unit, wherein the liquid ejecting apparatus is arranged such that liquid is supplied into the pressure chamber through one of the first individual flow path and the second individual flow path, and at least a part of the liquid supplied into the pressure chamber is discharged via the other of the first individual flow path and the second individual flow path, and the control unit is configured to eject the liquid from the nozzle by using a first drive waveform, and the control unit is further configured to introduce air into the pressure chamber via the nozzle by driving the pressure generating unit, during a period in which the liquid is not ejected from the nozzle, by using a second drive waveform, and each of the first drive waveform and the second drive waveform includes a first waveform part for expanding a volume of the pressure chamber and a second waveform part for reducing the volume of the pressure chamber, and a magnitude of a slope of the first waveform part in the second drive waveform is larger than a magnitude of a slope of the first waveform part in the first drive waveform.
Optical vital signs sensor configured to measure or determine vital signs of a user, comprising a photoplethysmographic (PPG) sensor having a light source configured to generate light which is directed towards a skin of the user and a photo detector unit configured to detect light, wherein said light being indicative of a reflection of light emitted in or from the skin of the user, wherein an output signal of the PPG sensor has a sampling rate, an amplitude, a number of pulses per sample and a duty-cycle, a pre-processing unit coupled to an output of the PPG sensor and being configured to convert an output signal from the PPG sensor having a first sample frequency and a first number of pulses per sample into an output signal having a second sample frequency and a second number of pulses per sample in order to neutralize or equalize any changes in sample frequency or the number of pulses per sample, a processing unit coupled to the pre-processing unit and being configured to execute at least one processing algorithm based on an output signal of the pre-processing unit , and a sensor control unit configured to control an operation of the PPG sensor by adapting the sampling rate (SR) and/or the number (n) of pulses per sample.
A guided wave radar level gauge probe configured to guide electromagnetic signals, wherein said probe comprises a plurality of elongate probe sections , one of said elongate probe sections being adapted to be mechanically connected to a tank feedthrough structure, characterized in that each probe section being pivotably connected to an adjacent probe section by means of a joint, said joint allowing probe sections to pivot between an operating state where said probe sections are substantially aligned along a straight line, and a transporting state, wherein said joint comprises a link member , which link member is pivotally connected to a first revolute joint member provided at an end of a first probe section and to a second revolute joint member provided at an end of a second probe section adjacent to the first probe section.
A computer-implemented method for centrally locating a vehicle within a travel lane on a roadway , said method comprising: determining a left edge of the roadway using thermal imaging; determining a right edge of the roadway using thermal imaging; determining a centerline of the travel lane based on the determined left and right edges of the roadway ; comparing the determined centerline of the travel lane with the actual position of the vehicle ; and identifying any adjustment for the vehicle's position based on the comparison, characterized in that determining each of the left edge and the right edge of the roadway comprises identifying, for each of the left edge and the right edge , a thermal difference between a first thermal signature representative of a portion of the roadway being imaged and a second thermal signature representative of a non-roadway portion being imaged, the non-roadway portion being located proximate to the roadway portion. determining a left edge of the roadway using thermal imaging; determining a right edge of the roadway using thermal imaging; determining a centerline of the travel lane based on the determined left and right edges of the roadway ; comparing the determined centerline of the travel lane with the actual position of the vehicle ; and identifying any adjustment for the vehicle's position based on the comparison, characterized in that determining each of the left edge and the right edge of the roadway comprises identifying, for each of the left edge and the right edge , a thermal difference between a first thermal signature representative of a portion of the roadway being imaged and a second thermal signature representative of a non-roadway portion being imaged, the non-roadway portion being located proximate to the roadway portion.