mhurhangee/ep-ind-claims huggingface dataset:
A drilling tool having a drill drive, a drill string and a control device for sensor-based control of torsional vibrations in the drill string, wherein the control device comprises a first sensor for supplying first measured data and a second sensor for supplying second measured data, wherein the control device further comprises: a first input interface for receiving first angular state data of the first sensor to be connected, in particular angular velocity data, a second input interface for receiving second angular state data of the second sensor to be connected, in particular angular velocity data, an output interface for output of a control value to the drive to be connected to the drill string, a control circuit, wherein the control circuit is designed to output a control value to the output interface on the basis of the first angular state data, in particular angular velocity data, and the second angular state data, in particular angular velocity data, as well as the distance of the first sensor to be connected from the second sensor to be connected, with the help of a wave equation and a model for torsional vibrations in a rod, wherein the first sensor is arranged at a distance from the drill drive which corresponds essentially to the product of the rate of propagation of a torsional vibration wave c on the drill string and a control delay of the drill drive, and the second sensor is arranged at a distance d downstream from the first sensor. a first input interface for receiving first angular state data of the first sensor to be connected, in particular angular velocity data, a second input interface for receiving second angular state data of the second sensor to be connected, in particular angular velocity data, an output interface for output of a control value to the drive to be connected to the drill string, a control circuit, wherein the control circuit is designed to output a control value to the output interface on the basis of the first angular state data, in particular angular velocity data, and the second angular state data, in particular angular velocity data, as well as the distance of the first sensor to be connected from the second sensor to be connected, with the help of a wave equation and a model for torsional vibrations in a rod, wherein the first sensor is arranged at a distance from the drill drive which corresponds essentially to the product of the rate of propagation of a torsional vibration wave c on the drill string and a control delay of the drill drive, and the second sensor is arranged at a distance d downstream from the first sensor.
Power-tool cutting device with at least one cutting strand (12a; 12b; 12c; 12d), with at least one guide unit (14a; 14b; 14c; 14d), which is for guiding the cutting strand (12a; 12b; 12c; 12d) and, in particular together with the cutting strand (12a; 12b; 12c; 12d), forms a self-contained system, and with at least one deflection unit (18a; 18b; 18c; 18d), which is arranged on a side (16a; 16b; 16c; 16d) of the guide unit (14a; 14b; 14c; 14d) that is remote from the drive and has at least one movably mounted deflection element (20a; 20b; 20c; 20d), which is for deflecting the cutting strand (12a; 12b; 12c; 12d), at least while the cutting strand (12a; 12b; 12c; 12d) is circulating around the guide unit (14a; 14b; 14c; 14d), and comprises at least one contact surface (22a; 22b; 22c; 22d) for at least temporarily making contact with the cutting strand (12a; 12b; 12c; 12d), characterized in that the deflection element (20a; 20b; 20c) has at least one extension, which is for engagement in the cutting strand (12a; 12b; 12c; 12d), is aligned at least substantially transversely with respect to the movement axis of the deflection element and has a maximum extent of less than 5 mm, preferably of less than 1 mm and particularly preferably of less than 0.1 mm, wherein the deflection unit comprises at least one further deflection element, which is movably mounted, is at least partially surrounded by the deflection element and has a sliding surface, which is provided to enable a sliding movement of the further deflection element relative to the deflection element, wherein the deflection element has a cutout, in which the further deflection element and a bearing element of the deflection unit are arranged.
An appliance for the treatment of a liquid food, characterized in that it comprises a container for the liquid food, a support for said container, a cover to close said container, a hermetically sealed chamber within said cover, a tool rotating inside said container for the treatment of said liquid food, a primary electrical winding held by said support and suitable to transfer energy by magnetic induction to a secondary electrical winding positioned inside said hermetically sealed chamber, and a motor driving the rotation of said tool positioned within said hermetically sealed chamber and electrically powered by said secondary winding.
An electric vehicle comprising: a traction motor; two frame members that extend in a longitudinal direction of the vehicle (2; 102); and an inverter configured to supply an alternating-current electric power to the traction motor, the inverter being arranged outside the two frame members, in a vehicle width direction, in a front compartment of the vehicle (2; 102), wherein an inner side of the inverter in the vehicle width direction is fixed to one of the two frame members, and an outer side of the inverter in the vehicle width direction is fixed to a cabin outer plate (5; 105), characterized in that a fixation strength of the inner side of the inverter is lower than a fixation strength of the outer side of the inverter. a traction motor; two frame members that extend in a longitudinal direction of the vehicle (2; 102); and an inverter configured to supply an alternating-current electric power to the traction motor, the inverter being arranged outside the two frame members, in a vehicle width direction, in a front compartment of the vehicle (2; 102), wherein an inner side of the inverter in the vehicle width direction is fixed to one of the two frame members, and an outer side of the inverter in the vehicle width direction is fixed to a cabin outer plate (5; 105), characterized in that a fixation strength of the inner side of the inverter is lower than a fixation strength of the outer side of the inverter.
Height-adjustable table, comprising a table base, a first and a second pair of struts (1, 2) and a table top support, wherein the first pair of struts is designed to be connected firstly with the table base and secondly with the second pair of struts, and the second pair of struts is designed to be connected firstly with the first pair of struts and secondly with the table top support, wherein the first pair of struts has a first support strut (1.1) connected in an articulated manner to the table base and a first adjusting strut (1.2) extending at least in sections parallel to the first support strut (1.1), wherein the second pair of struts has a second support strut (2.1) connected in an articulated manner to the table top support and a second adjusting strut (2.2) extending at least in sections parallel to the second support strut (2.1), characterized in that the first support strut (1.1) is designed to be connected in an articulated manner to the second support strut (2.1) via a first joint (4.1), the first support strut (1.1) is designed to be connected in an articulated manner to the second adjusting strut (2.2) via a second joint (4.2) and the first adjusting strut (1.2) is designed to be connected in an articulated manner to the second support strut (2.2) via a third joint (4.3), and in that the first adjusting strut (1.2) is moveably mounted on the table base and the second adjusting strut (2.2) is moveably mounted on the table top support.
A transmit apparatus comprising: a supply modulator comprising a switching amplifying stage, a linear amplifying stage, wherein the linear amplifying stage is configured to push or pull currents from an output of the switching amplifying stage, and calibration register to store calibration data; a detector configured to detect an output signal of the supply modulator, the output signal comprising a signal output from the switching amplifying stage and the linear amplifying stage; and a modulator/demodulator, modem, configured to: receive the detected output signal of the supply modulator from the detector, generate a calibration signal based on the detected output signal, and provide the generated calibration signal to the supply modulator, wherein the supply modulator is configured to generate the output signal according to a modulation characteristic of the linear amplifying stage that is calibrated based on the calibration signal provided from the modem. a supply modulator comprising a switching amplifying stage, a linear amplifying stage, wherein the linear amplifying stage is configured to push or pull currents from an output of the switching amplifying stage, and calibration register to store calibration data; a detector configured to detect an output signal of the supply modulator, the output signal comprising a signal output from the switching amplifying stage and the linear amplifying stage; and a modulator/demodulator, modem, configured to: receive the detected output signal of the supply modulator from the detector, generate a calibration signal based on the detected output signal, and provide the generated calibration signal to the supply modulator, receive the detected output signal of the supply modulator from the detector, generate a calibration signal based on the detected output signal, and provide the generated calibration signal to the supply modulator, wherein the supply modulator is configured to generate the output signal according to a modulation characteristic of the linear amplifying stage that is calibrated based on the calibration signal provided from the modem.
Apparatus for cooling a metering module, in particular for metering a fuel/additive into the exhaust section of an internal combustion engine, wherein the metering module is assigned a cooling device which comprises a heat sink (17, 20, 24, 28, 29) through which a cooling liquid flows, wherein the heat sink (17, 20, 24, 28, 29) forms a housing of the metering valve, the first group of parts (17, 20, 28) of which housing forms an air gap insulation (38; 54, 56, 58) on an electric contact (16, 56) and the second group of parts (28, 29, 40) of which contact has cooling fluid flowing therethrough, characterized in that the heat sink comprises an upper shell, a latchable plug-in contact cover, a central shell, a lower shell and a cup-shaped insert embedded in the lower shell, and in that the plug-in contact cover is manufactured from material having elastic properties in order to compensate for temperature-induced expansions of upper shell and central shell.
An in vitro method of inhibiting proliferation of prostate-specific membrane antigen (PSMA)-expressing cancer cells, the method comprising: contacting PSMA-expressing cancer cells with an antiandrogen, wherein the antiandrogen is abiraterone, enzalutamide, nilutamide, flutamide, bicalutamide, ARN 509, galeterone or orteronel; and contacting the PSMA-expressing cancer cells with a PSMA ligand-anticancer agent conjugate or a PSMA ligand-cytotoxic agent conjugate, wherein the PSMA ligand of the conjugate comprises a small molecule ligand that binds specifically PSMA and the small molecule ligand comprises a glutamate-urea-amino acid moiety, wherein the glutamate-urea-amino acid moiety is a glutamate-urea-lysine; wherein the PSMA-expressing cancer cells comprise PSMA-expressing cancer cells insensitive to antiandrogen therapy. contacting PSMA-expressing cancer cells with an antiandrogen, wherein the antiandrogen is abiraterone, enzalutamide, nilutamide, flutamide, bicalutamide, ARN 509, galeterone or orteronel; and contacting the PSMA-expressing cancer cells with a PSMA ligand-anticancer agent conjugate or a PSMA ligand-cytotoxic agent conjugate, wherein the PSMA ligand of the conjugate comprises a small molecule ligand that binds specifically PSMA and the small molecule ligand comprises a glutamate-urea-amino acid moiety, wherein the glutamate-urea-amino acid moiety is a glutamate-urea-lysine; wherein the PSMA-expressing cancer cells comprise PSMA-expressing cancer cells insensitive to antiandrogen therapy.
A method for producing glycolic acid, comprising culturing a eukaryotic host in a growth and a production medium and recovering the glycolic acid from said medium, wherein the eukaryotic host: - is selected from yeast and filamentous fungus cells, - has been genetically modified by transformation of a protein-encoding polynucleotide into the genome of the host cell, - expresses a heterologous gene encoding glyoxylate reductase of sequence SEQ ID NO: 3 or sequence having at least 50% identity to sequence SEQ ID NO: 3, and - produces glycolic acid at pH 1.5 to 6.0. - is selected from yeast and filamentous fungus cells, - has been genetically modified by transformation of a protein-encoding polynucleotide into the genome of the host cell, - expresses a heterologous gene encoding glyoxylate reductase of sequence SEQ ID NO: 3 or sequence having at least 50% identity to sequence SEQ ID NO: 3, and - produces glycolic acid at pH 1.5 to 6.0.
A method of manufacturing a wood-based panel provided with a decor comprising the steps: (a) applying at least one first layer of at least one powdered resin to at least one side of a wood-based panel and melting-on the at least one applied layer of powdered resin; a1) applying at least one undercoat to the melted-on resin powder layer; a2) applying of at least one primer layer to the at least one undercoat; b) applying at least one decorative layer by means of a direct printing process; c) applying at least one further, second layer of at least one powdered resin to the at least one imprinted decorative layer and melting-on the at least one layer of powdered resin spread on the decorative layer. d) uniformly sprinkling abrasion-resistant particles onto the powdered resin layer applied in step c). e) applying at least one further, third layer of at least one powdered resin to the layer of abrasion-resistant particles and melting-on the applied third layer of powdered resin, f) sprinkling glass beads onto the at least one further, third melted-on layer of powdered resin, whereon the glass beads used have a diameter of 60-120 μm, preferably 80-90 μm, and the amount of scattered glass beads is 5 to 30 g/m 2, preferably 8 to 20 g/m 2, more preferably 8 to 15 g/m 2, g) applying at least one further, fourth layer of at least one powdered resin to the layer of glass beads and melting-on the applied fourth layer of powdered resin, h) pressing the layered structure. (a) applying at least one first layer of at least one powdered resin to at least one side of a wood-based panel and melting-on the at least one applied layer of powdered resin; a1) applying at least one undercoat to the melted-on resin powder layer; a2) applying of at least one primer layer to the at least one undercoat; a1) applying at least one undercoat to the melted-on resin powder layer; a2) applying of at least one primer layer to the at least one undercoat; b) applying at least one decorative layer by means of a direct printing process; c) applying at least one further, second layer of at least one powdered resin to the at least one imprinted decorative layer and melting-on the at least one layer of powdered resin spread on the decorative layer. d) uniformly sprinkling abrasion-resistant particles onto the powdered resin layer applied in step c). e) applying at least one further, third layer of at least one powdered resin to the layer of abrasion-resistant particles and melting-on the applied third layer of powdered resin, f) sprinkling glass beads onto the at least one further, third melted-on layer of powdered resin, whereon the glass beads used have a diameter of 60-120 μm, preferably 80-90 μm, and the amount of scattered glass beads is 5 to 30 g/m 2, preferably 8 to 20 g/m 2, more preferably 8 to 15 g/m 2, g) applying at least one further, fourth layer of at least one powdered resin to the layer of glass beads and melting-on the applied fourth layer of powdered resin, h) pressing the layered structure.
A temperature correction circuit configured to maintain a transistor of a power amplifier in a linear operating region of said transistor, the temperature correction circuit comprising: a first current source circuit operable to provide a first correction current (I ptat) proportional to an absolute, static temperature (T die) of a semiconductor die including said transistor; a second current source circuit operable to provide a second correction current (I ptdt) proportional to the difference between the temperature (T PA) of a part of said semiconductor die in which the transistor is located during operation of the transistor and the static temperature (T die) of the semiconductor die; a third current source circuit operable to provide a gain selection current (I 0) selected in accordance with a required gain level of the power amplifier; circuitry for producing a reference current (Iref) from a linear contribution of said first and second correction currents and said gain selection current; and an output for providing said reference current to said transistor. a first current source circuit operable to provide a first correction current (I ptat) proportional to an absolute, static temperature (T die) of a semiconductor die including said transistor; a second current source circuit operable to provide a second correction current (I ptdt) proportional to the difference between the temperature (T PA) of a part of said semiconductor die in which the transistor is located during operation of the transistor and the static temperature (T die) of the semiconductor die; a third current source circuit operable to provide a gain selection current (I 0) selected in accordance with a required gain level of the power amplifier; circuitry for producing a reference current (Iref) from a linear contribution of said first and second correction currents and said gain selection current; and an output for providing said reference current to said transistor.
A method to produce a mammalian cell line producing at least one antibody, a derivative thereof or an antigen binding fragment comprising the steps of: (a) transforming a mammalian cell with a polynucleotide sequence comprising (i) a sequence that encodes the antibody, a derivative thereof or the antigen binding fragment and has a codon adaptation index that is equal to or greater than 0.9; and (ii) a sequence that encodes a selection marker which is capable of providing amplification of the polynucleotide sequence; (b) providing at least one round of amplification in the presence of a selection and amplification agent; and (c) selecting the mammalian cell line once a cell production yield of 0.3-1.5 g/L in extended unfed batch culture and/or a cell productivity of 10-100 pg/cell/day in unfed batch culture of the antibody, a derivative thereof or the antigen binding fragment is reached; wherein the concentration of selection and amplification agent is 50% or less than the concentration used to reach an equivalent production yield, compared with a mammalian cell of (a) transformed with said polynucleotide sequence that encodes the antibody, a derivative thereof or the antigen binding fragment and has a codon adaptation index that is less than 0.9. (a) transforming a mammalian cell with a polynucleotide sequence comprising (i) a sequence that encodes the antibody, a derivative thereof or the antigen binding fragment and has a codon adaptation index that is equal to or greater than 0.9; and (ii) a sequence that encodes a selection marker which is capable of providing amplification of the polynucleotide sequence; (i) a sequence that encodes the antibody, a derivative thereof or the antigen binding fragment and has a codon adaptation index that is equal to or greater than 0.9; and (ii) a sequence that encodes a selection marker which is capable of providing amplification of the polynucleotide sequence; (b) providing at least one round of amplification in the presence of a selection and amplification agent; and (c) selecting the mammalian cell line once a cell production yield of 0.3-1.5 g/L in extended unfed batch culture and/or a cell productivity of 10-100 pg/cell/day in unfed batch culture of the antibody, a derivative thereof or the antigen binding fragment is reached;
A multi-modal vehicle operable in a first mode as a fixed wing aircraft and reconfigurable to be operable in a second mode as a ground vehicle, wherein the vehicle has first and second ends and is configured to operate in a first direction, with the first end leading the second end, in the first mode; characterized in that the vehicle is configured to operate in a second direction, with the second end leading the first end, in normal operation in the second mode, while during operation of the vehicle, an operator will face the first direction when in the first mode and will face the second direction when in the second mode. wherein the vehicle has first and second ends and is configured to operate in a first direction, with the first end leading the second end, in the first mode; characterized in that the vehicle is configured to operate in a second direction, with the second end leading the first end, in normal operation in the second mode, while during operation of the vehicle, an operator will face the first direction when in the first mode and will face the second direction when in the second mode.
An inkjet recording apparatus (29; 39) comprising: a curable ink comprising a polymer having a polyester structural unit; and a discharge head including: an individual liquid chamber including a circulation channel in which the curable ink is circulatable; and a nozzle plate having a nozzle from which the curable ink is dischargeable; and a mechanism configured to perform a micro drive operation at a level that the curable ink is not discharged at a time when an image forming discharging operation is not performed; wherein the nozzle plate is made of metal, and a thickness of the nozzle plate, between the circulation channel and a surface of the nozzle plate, is 70 μm or less. a curable ink comprising a polymer having a polyester structural unit; and a discharge head including: an individual liquid chamber including a circulation channel in which the curable ink is circulatable; and a nozzle plate having a nozzle from which the curable ink is dischargeable; and an individual liquid chamber including a circulation channel in which the curable ink is circulatable; and a nozzle plate having a nozzle from which the curable ink is dischargeable; and a mechanism configured to perform a micro drive operation at a level that the curable ink is not discharged at a time when an image forming discharging operation is not performed; wherein the nozzle plate is made of metal, and a thickness of the nozzle plate, between the circulation channel and a surface of the nozzle plate, is 70 μm or less.
A device for connecting a target object to a towing vehicle for functional testing of a driver assistance system of a test vehicle for carrying out test drives, in particular for near-collision and collision test drives, comprising at least one deformable hose which can be connected at the ends thereof to said towing vehicle and said target object via suitable means, and which serves substantially to transmit acceleration forces from said towing vehicle to said target object, wherein an inner volume of said at least one deformable hose can be hydraulically or pneumatically pressurized, comprising at least two deformable hoses which are connected to one another transversely to the longitudinal direction by means of at least one connecting element.