mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit system, comprising: a first active layer fabricated on a front side (120, 220) of a semiconductor die; characterized by: a second pre-fabricated layer that is separately formed from and joined to a back side (130, 230) of the semiconductor die and having electrical components and an array of links connecting the electrical components embodied therein, wherein the electrical components include at least one discrete passive component; and at least one electrical path coupling the first active layer and the second pre-fabricated layer, wherein the array of links are modifiable to tune performance of the integrated circuit system after assembly of the first active layer with the second pre-fabricated layer. a first active layer fabricated on a front side (120, 220) of a semiconductor die; characterized by: a second pre-fabricated layer that is separately formed from and joined to a back side (130, 230) of the semiconductor die and having electrical components and an array of links connecting the electrical components embodied therein, wherein the electrical components include at least one discrete passive component; and at least one electrical path coupling the first active layer and the second pre-fabricated layer, wherein the array of links are modifiable to tune performance of the integrated circuit system after assembly of the first active layer with the second pre-fabricated layer.
A control device for a diesel engine, comprising: a variable geometry supercharger with a variable supercharge pressure mechanism (21 d); and an exhaust gas recirculation valve configured to adjust an exhaust gas recirculation amount, characterized in that the device is configured to, when the engine is determined to be in acceleration, set a maximum exhaust pressure, which is an upper limit of an exhaust pressure, such that an increased amount of an engine torque caused by an increase in a fuel injection amount in association with the acceleration is greater than an increased amount of a pumping loss caused by an increase in the exhaust pressure due to an actuation of the variable supercharge pressure mechanism in association with the acceleration, and control a target value of a control variable for the variable supercharge pressure mechanism and a target value of a control variable for the exhaust gas recirculation valve on the basis of the maximum exhaust pressure. a variable geometry supercharger with a variable supercharge pressure mechanism (21 d); and an exhaust gas recirculation valve configured to adjust an exhaust gas recirculation amount, characterized in that the device is configured to, when the engine is determined to be in acceleration, set a maximum exhaust pressure, which is an upper limit of an exhaust pressure, such that an increased amount of an engine torque caused by an increase in a fuel injection amount in association with the acceleration is greater than an increased amount of a pumping loss caused by an increase in the exhaust pressure due to an actuation of the variable supercharge pressure mechanism in association with the acceleration, and control a target value of a control variable for the variable supercharge pressure mechanism and a target value of a control variable for the exhaust gas recirculation valve on the basis of the maximum exhaust pressure.
Collector composition for beneficiation of phosphates from phosphate containing ores comprising I. 50 to 90 wt% of at least one component A, II. 1 to 49 wt% of at least one component B, and III. 1 to 49 wt% of at least one component C, wherein the component A is selected from the group consisting of a fatty acid blend with ≥ 90% C 16 to C 18 fatty acids with an unsaturation degree of 0.5 to 3, oleic acid, soybean fatty acids, tall oil, rosins, fatty acid peptides of the formula C n-1 H 2n-1 CO-NH-R with n=12 to 22 and with R being a residue of natural or artificial amino acids comprising glycine, sarcosine or taurine, wherein the component B comprises alkoxylated branched alcohols as non-ionic surfactant which comprise two different types of alkoxy moieties, and wherein the component C comprises sulfur-containing surfactants selected from the group consisting of alkyl sulfates of the formula C n H 2n+1 OSO 3 - with n=12 to 22, alkyl ether sulfates, alkyl sulfonates, alkyl benzenesulfonates, petroleum sulfonates, sulfonated fatty acids, dialkyl sulfosuccinates, di- or tetraalkyl sulfosuccinamates, alkyl ether sulfates and alkyl benzenesulfonates. I. 50 to 90 wt% of at least one component A, II. 1 to 49 wt% of at least one component B, and III. 1 to 49 wt% of at least one component C, wherein the component A is selected from the group consisting of a fatty acid blend with ≥ 90% C 16 to C 18 fatty acids with an unsaturation degree of 0.5 to 3, oleic acid, soybean fatty acids, tall oil, rosins, fatty acid peptides of the formula C n-1 H 2n-1 CO-NH-R with n=12 to 22 and with R being a residue of natural or artificial amino acids comprising glycine, sarcosine or taurine, wherein the component B comprises alkoxylated branched alcohols as non-ionic surfactant which comprise two different types of alkoxy moieties, and wherein the component C comprises sulfur-containing surfactants selected from the group consisting of alkyl sulfates of the formula C n H 2n+1 OSO 3 - with n=12 to 22, alkyl ether sulfates, alkyl sulfonates, alkyl benzenesulfonates, petroleum sulfonates, sulfonated fatty acids, dialkyl sulfosuccinates, di- or tetraalkyl sulfosuccinamates, alkyl ether sulfates and alkyl benzenesulfonates.
A method for making a high-protein acidic liquid food product comprising 1-5, 5-10, 10-15 or 15-20% weight/weight microalgal protein from microalgal flour, the method comprising: (a) making a protein-supplemented acidic liquid by combining an acidic liquid with high-protein microalgal flour, or combining a non-acidic liquid with high-protein microalgal flour and an acid, to arrive at a microalgal protein-supplemented liquid having a pH of 4.6 or less; and (b) subjecting the protein-supplemented liquid to a heating step so as to inactivate microbes, wherein, after the heating step, the dynamic viscosity, when measured at 22°C and a shear rate of 61-66 s -1, of the liquid increases by no more than 0.5, 1, 2, 5, 7 or 10%; and wherein the high-protein microalgal flour comprises at least 55% microalgal cell protein by dry weight. (a) making a protein-supplemented acidic liquid by combining an acidic liquid with high-protein microalgal flour, or combining a non-acidic liquid with high-protein microalgal flour and an acid, to arrive at a microalgal protein-supplemented liquid having a pH of 4.6 or less; and (b) subjecting the protein-supplemented liquid to a heating step so as to inactivate microbes, wherein, after the heating step, the dynamic viscosity, when measured at 22°C and a shear rate of 61-66 s -1, of the liquid increases by no more than 0.5, 1, 2, 5, 7 or 10%; and wherein the high-protein microalgal flour comprises at least 55% microalgal cell protein by dry weight. wherein, after the heating step, the dynamic viscosity, when measured at 22°C and a shear rate of 61-66 s -1, of the liquid increases by no more than 0.5, 1, 2, 5, 7 or 10%; and wherein the high-protein microalgal flour comprises at least 55% microalgal cell protein by dry weight.
Mobile device, which can be driven in particular by an electric motor, for separating slate slabs, fibre cement slabs or ceramic slabs with an abutment having a bearing surface (17, 18) for the slate slab, in which a tool carrier having a cutting edge (10, 11) is cyclically deflected by means of an eccentric, with the result that the cutting edge (10, 11) penetrates, from a side facing away from the abutment, into the slate slab and produces a cut edge or fracture edge, characterized in that the device is releasably fixable in a stationary or positionally fixed manner while carrying out the separating method, and in that the device is equipped with at least two cutting edges (10, 11) which are arranged in a common plane, wherein at least one cutting edge is arranged above the at least one abutment and at least one further cutting edge is arranged below the at least one abutment, with the result that, during the separating process, the slate slab can be selectively placed from above or from below against a respective bearing surface (17, 18) of the at least one abutment, and wherein the tool carrier carrying the cutting edges (10, 11) is configured to be reversingly translationally movable during operation by means of the eccentric.
A protection system, comprising: a plurality of controlled impedance devices, each coupled between a respective phase of a stator winding of a double fed induction generator and a respective phase of a grid side converter; and characterized by: a controller configured for coupling and decoupling impedance in one or more of the plurality of controlled impedance devices in response to changes in at least one of a utility grid voltage and a utility grid current so as to control an air-gap torque of the double fed induction generator to a desired value during a grid fault, wherein each controlled impedance device comprises a current dependent variable impedance device, the current dependent variable impedance device configured for offering high impedance when stator current rises above a first threshold value and a very low impedance when stator current drops below a second threshold value. a plurality of controlled impedance devices, each coupled between a respective phase of a stator winding of a double fed induction generator and a respective phase of a grid side converter; and characterized by: a controller configured for coupling and decoupling impedance in one or more of the plurality of controlled impedance devices in response to changes in at least one of a utility grid voltage and a utility grid current so as to control an air-gap torque of the double fed induction generator to a desired value during a grid fault, wherein each controlled impedance device comprises a current dependent variable impedance device, the current dependent variable impedance device configured for offering high impedance when stator current rises above a first threshold value and a very low impedance when stator current drops below a second threshold value. a controller configured for coupling and decoupling impedance in one or more of the plurality of controlled impedance devices in response to changes in at least one of a utility grid voltage and a utility grid current so as to control an air-gap torque of the double fed induction generator to a desired value during a grid fault, wherein each controlled impedance device comprises a current dependent variable impedance device, the current dependent variable impedance device configured for offering high impedance when stator current rises above a first threshold value and a very low impedance when stator current drops below a second threshold value.
An item of furniture comprising a furniture carcass, a furniture part and a device for moving the furniture part relative to the furniture carcass, the item of furniture being in the form of an upper cabinet, and wherein the furniture part in the form of an inner carcass is movable substantially vertically, the device comprising: - a carrier configured to be fixed to the furniture carcass, - a fastening device configured to be fixed to the furniture part, - an electric drive device configured to move the fastening device relative to the carrier between a first end position and a second end position, the drive device being movably supported on the carrier by means of a spring device, - a sensor device configured to deliver an electric signal in dependence on the relative position of the drive device with respect to the carrier, - an open-loop or closed-loop control device for open-loop or closed-loop control of the drive device, to which the electric signal can be fed, wherein the open-loop or closed-loop control device is configured to determine an actual position of the fastening device relative to the carrier and to use same for closed-loop or open-loop control of the drive device, - wherein the carrier is fixed to the furniture carcass and the fastening device is fixed to the furniture part, the open-loop or closed-loop control device being configured to provide for open-loop or closed-loop control of the drive device such that the first end position and/or the second end position of the fastening device relative to the carrier is constant. - a carrier configured to be fixed to the furniture carcass, - a fastening device configured to be fixed to the furniture part, - an electric drive device configured to move the fastening device relative to the carrier between a first end position and a second end position, the drive device being movably supported on the carrier by means of a spring device, - a sensor device configured to deliver an electric signal in dependence on the relative position of the drive device with respect to the carrier, - an open-loop or closed-loop control device for open-loop or closed-loop control of the drive device, to which the electric signal can be fed, wherein the open-loop or closed-loop control device is configured to determine an actual position of the fastening device relative to the carrier and to use same for closed-loop or open-loop control of the drive device, - wherein the carrier is fixed to the furniture carcass and the fastening device is fixed to the furniture part, the open-loop or closed-loop control device being configured to provide for open-loop or closed-loop control of the drive device such that the first end position and/or the second end position of the fastening device relative to the carrier is constant.
A composition for use in reversing cognition loss in an animal subject in need thereof, comprising a compound of Formula: wherein, p is 2, 3 or 4; and R 1, R 2, R 3, R 4, R 5, R 6, R 16, and R 18 are independently hydrogen, halogen, -N 3, -CF 3, -CCl 3, - CBr 3, -CI 3, -CN, -CHO, -OH, -NH 2, -COOH, -CONH 2, -NO 2, -SH, -SO 2, -SO 2 Cl, -SO 3 H, - SO 4 H, -SO 2 NH 2, -NHNH 2, -ONH 2, -NHC NHNH 2, substituted or unsubstituted alkyl, substituted or unsubstituted heteroalkyl, substituted or unsubstituted cycloalkyl, substituted or unsubstituted heterocycloalkyl, substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl.
A method for operating a time of flight system comprising a light source, a plurality of pixel sensors, a timing clock and an image processing module, the plurality of pixel sensors coupled to the timing clock and configured to receive light generated by the light source and reflected in a 3-dimensional environment, the timing clock configured to generate and send a modulation signal to the plurality of pixel sensors and a modulation signal to the light source, the modulation signals to be generated are based at least on an updated set of modulation frequency and duty cycle calibration combinations received by the image processing module and are to determine the timing of light received by the plurality of pixel sensors, the method comprising: using the image processing module to (i) interpolate an updated timing delay calibration for each of the plurality of pixel sensors based at least on an updated set of modulation frequency and duty cycle calibration combinations received by the image processing module, wherein a timing delay calibration for one of the plurality of pixel sensors corresponds to a calibration of a timing delay for the one of the plurality of pixel sensors for accounting for a time difference between the modulation signal received by the one of the plurality of pixel sensors and an actual moment of light illumination triggered by the modulation signal received by the light source, (ii) replace a set of factory-preloaded timing delay calibrations with the updated timing delay calibrations; and (iii) apply the updated timing delay calibrations to pixel data corresponding to each of the plurality of the pixel sensors to generate a depth map of the 3-dimensional environment.
An aerosol-generating device comprising: an electrical power supply; a cavity for receiving at least part of an aerosol-generating article; at least one electrical heater positioned within the cavity; a controller configured to control a supply of electrical power from the electrical power supply to the at least one electrical heater to activate the at least one electrical heater, wherein the controller is configured to activate the at least one electrical heater for a total time period when at least part of an aerosol-generating article is received within the cavity; and a segmented visual feedback device, wherein a plurality of segments of the segmented visual feedback device each correspond to a different portion of the total time period, and wherein each of the plurality of segments is configured to provide visual feedback when at least part of an aerosol-generating article is received within the cavity and when the corresponding portion of the total time period has elapsed. an electrical power supply; a cavity for receiving at least part of an aerosol-generating article; at least one electrical heater positioned within the cavity; a controller configured to control a supply of electrical power from the electrical power supply to the at least one electrical heater to activate the at least one electrical heater, wherein the controller is configured to activate the at least one electrical heater for a total time period when at least part of an aerosol-generating article is received within the cavity; and a segmented visual feedback device, wherein a plurality of segments of the segmented visual feedback device each correspond to a different portion of the total time period, and wherein each of the plurality of segments is configured to provide visual feedback when at least part of an aerosol-generating article is received within the cavity and when the corresponding portion of the total time period has elapsed.
An extremely small diameter endoscope comprising: an endoscope body having a distal end nozzle; an imaging unit disposed in the endoscope body and adapted for capturing an image; an endoscope insertion part comprising a proximal end portion and a projection end portion, the proximal end portion connected to the imaging unit, the endoscope insertion part passing through the distal end nozzle, the projection end portion to be positioned in a root canal of a tooth or in a periodontal pocket; and endoscope insertion part insertion means for inserting the endoscope insertion part into an observation portion in the root canal of the tooth or in the periodontal pocket, characterised in that the endoscope insertion part insertion means is slidably attached to the endoscope body and includes the imaging unit and a lever, and the endoscope insertion part insertion means is configured to allow a user to, by user slide operations of the lever forward and backward, slide the endoscope insertion part insertion means forward and backward in the same directions, to move the endoscope insertion part forward and backward in the endoscope body and in the distal end nozzle in conjunction with the imaging unit and thereby to insert the endoscope insertion part into an observation portion in the root canal of the tooth or in the periodontal pocket with an end portion of the distal end nozzle kept abutted against a surrounding portion of the observation portion. an endoscope body having a distal end nozzle; an imaging unit disposed in the endoscope body and adapted for capturing an image; an endoscope insertion part comprising a proximal end portion and a projection end portion, the proximal end portion connected to the imaging unit, the endoscope insertion part passing through the distal end nozzle, the projection end portion to be positioned in a root canal of a tooth or in a periodontal pocket; and endoscope insertion part insertion means for inserting the endoscope insertion part into an observation portion in the root canal of the tooth or in the periodontal pocket, characterised in that the endoscope insertion part insertion means is slidably attached to the endoscope body and includes the imaging unit and a lever, and the endoscope insertion part insertion means is configured to allow a user to, by user slide operations of the lever forward and backward, slide the endoscope insertion part insertion means forward and backward in the same directions, to move the endoscope insertion part forward and backward in the endoscope body and in the distal end nozzle in conjunction with the imaging unit and thereby to insert the endoscope insertion part into an observation portion in the root canal of the tooth or in the periodontal pocket with an end portion of the distal end nozzle kept abutted against a surrounding portion of the observation portion.
In vitro or ex vivo use of the LAH4 peptide having the sequence represented in SEQ ID NO:1 or a functional derivative thereof having the ability to improve the transduction efficiency of a virus or viral vector, for promoting the infection of an eukaryotic cell by a virus or a viral vector, wherein the functional derivative comprises - 19 or more amino acids, in particular 20, 21 or more amino acids; - its N-terminal end comprises one or more amino acid residues positively charged at pH 7.4, selected in particular from lysines and/or arginines; and - a central helical region selected in the group consisting of a) an apolar helix harboring a cluster of hydrophobic amino acid residues on one side of the helix and consecutive alanine residues on the other side of the helix, said consecutive alanine residues defining an angle of 60 to 180° in Schiffer-Edmundson's wheel representation, and preferentially an angle of 140°; or b) an amphipathic helix harboring a cluster of hydrophobic amino acid residues on one side of the helix and two to four histidine residues on the other side of the helix, defining an hydrophilic angle comprised between 60° and 180° in Schiffer-Edmundson's wheel representation and preferably an angle of 140°. - 19 or more amino acids, in particular 20, 21 or more amino acids; - its N-terminal end comprises one or more amino acid residues positively charged at pH 7.4, selected in particular from lysines and/or arginines; and - a central helical region selected in the group consisting of a) an apolar helix harboring a cluster of hydrophobic amino acid residues on one side of the helix and consecutive alanine residues on the other side of the helix, said consecutive alanine residues defining an angle of 60 to 180° in Schiffer-Edmundson's wheel representation, and preferentially an angle of 140°; or b) an amphipathic helix harboring a cluster of hydrophobic amino acid residues on one side of the helix and two to four histidine residues on the other side of the helix, defining an hydrophilic angle comprised between 60° and 180° in Schiffer-Edmundson's wheel representation and preferably an angle of 140°. a) an apolar helix harboring a cluster of hydrophobic amino acid residues on one side of the helix and consecutive alanine residues on the other side of the helix, said consecutive alanine residues defining an angle of 60 to 180° in Schiffer-Edmundson's wheel representation, and preferentially an angle of 140°; or b) an amphipathic helix harboring a cluster of hydrophobic amino acid residues on one side of the helix and two to four histidine residues on the other side of the helix, defining an hydrophilic angle comprised between 60° and 180° in Schiffer-Edmundson's wheel representation and preferably an angle of 140°.