mhurhangee/patent-ind-claim-en huggingface dataset:
A genetically engineered thermophilic bacterial cell of the genus Geobacillus that is facultative anaerobic comprising: a. an inactivated or deleted endogenous (S)-lactate dehydrogenase gene; b. a non-endogenous (R)-lactate dehydrogenase gene selected from the group of the hdhD gene from Lactobacillus delbrueckii encoding the amino acid sequence of SEQ ID NO:38 or an amino acid sequence having at least 90% identity with SEQ ID NO: 38, and the IdhA gene from Lactobacillus delbrueckii encoding the amino acid sequence of SEQ ID NO:36 or an amino acid sequence having at least 90% identity with SEQ ID NO: 36; c. an inactivated or deleted endogenous pyruvate formate lyase A and/or B gene. a. an inactivated or deleted endogenous (S)-lactate dehydrogenase gene; b. a non-endogenous (R)-lactate dehydrogenase gene selected from the group of the hdhD gene from Lactobacillus delbrueckii encoding the amino acid sequence of SEQ ID NO:38 or an amino acid sequence having at least 90% identity with SEQ ID NO: 38, and the IdhA gene from Lactobacillus delbrueckii encoding the amino acid sequence of SEQ ID NO:36 or an amino acid sequence having at least 90% identity with SEQ ID NO: 36; c. an inactivated or deleted endogenous pyruvate formate lyase A and/or B gene.
A method of controlling tilt of an agricultural implement being towed by a tow vehicle along a field, comprising: providing a controller , a first sensor , a second sensor , and an actuator coupled to the implement ; detecting a baseline level of the tow vehicle with the first sensor at a first location in the field, wherein the implement is located at a second location in the field spaced rearward of the first location; characterized in : determining when the implement will be at the first location in the field; measuring an implement level of the implement with the second sensor once the implement is at the first location; comparing the implement level to the baseline level with the controller ; determining if the difference between the implement level and baseline level is within a tolerance range; and controlling the actuator to adjust the implement if the implement level is not within the tolerance range. providing a controller , a first sensor , a second sensor , and an actuator coupled to the implement ; detecting a baseline level of the tow vehicle with the first sensor at a first location in the field, wherein the implement is located at a second location in the field spaced rearward of the first location; characterized in : determining when the implement will be at the first location in the field; measuring an implement level of the implement with the second sensor once the implement is at the first location; comparing the implement level to the baseline level with the controller ; determining if the difference between the implement level and baseline level is within a tolerance range; and controlling the actuator to adjust the implement if the implement level is not within the tolerance range. determining when the implement will be at the first location in the field; measuring an implement level of the implement with the second sensor once the implement is at the first location; comparing the implement level to the baseline level with the controller ; determining if the difference between the implement level and baseline level is within a tolerance range; and controlling the actuator to adjust the implement if the implement level is not within the tolerance range.
A processing head for the surface processing by means of a laser beam, wherein the processing head comprises a through passage for a laser beam having a longitudinal axis (A), at least one powder feed channel and a cooling passage for cooling the processing head , and the processing head is configured of at least two parts and comprises a one-piece body and a sleeve for the arrangement at the body , and the through passage of the laser is configured in the body , and the body at least partly forms a first side wall of the cooling passage and wherein the sleeve at least partly forms a second sidewall of the cooling passage , characterized in that the powder feed channel is configured in the body .
A table for a vehicle , in particular a railway vehicle, this table comprising a tray , a foot for support on the floor and a module for hooking the table to a wall of the vehicle, this module being plastically deformable under a predetermined force, wherein: - the hooking module comprises a part deformable under the predetermined force and in the direction of this force; - the deformable part has an omega, U or C shaped section, with a central portion and two intermediate tabs ; - the deformable part is fixed, by its central portion, to a first structure (82; 44) among the tray and the wall; - the deformable part is fixed, by end plates , connected to the central portion by the intermediate tabs, or by free edges of its intermediate tabs, to a second structure (44; 82) among the wall and the tray; characterised in that - the hooking module comprises a frame for guiding and limiting the deformations of the deformable part . - the hooking module comprises a part deformable under the predetermined force and in the direction of this force; - the deformable part has an omega, U or C shaped section, with a central portion and two intermediate tabs ; - the deformable part is fixed, by its central portion, to a first structure (82; 44) among the tray and the wall; - the deformable part is fixed, by end plates , connected to the central portion by the intermediate tabs, or by free edges of its intermediate tabs, to a second structure (44; 82) among the wall and the tray; characterised in that - the hooking module comprises a frame for guiding and limiting the deformations of the deformable part .
Aerodynamic deflector device for a motor vehicle wheel, comprising: - an elongate support configured to be mounted on a motor vehicle, - a deflecting wall mounted on the support so as to be movable between, on the one hand, a retracted position in which, in the mounted state, said deflecting wall is raised with respect to the support , and, on the other hand, a deployed position in which, in the mounted state, said deflecting wall is lowered with respect to the support , and - an actuator configured to move said deflecting wall between the retracted and deployed positions, characterized in that the deflecting wall is mounted rotatably on the support about an axis of rotation oriented substantially parallel to a longitudinal axis of the support and driven by the actuator . - an elongate support configured to be mounted on a motor vehicle, - a deflecting wall mounted on the support so as to be movable between, on the one hand, a retracted position in which, in the mounted state, said deflecting wall is raised with respect to the support , and, on the other hand, a deployed position in which, in the mounted state, said deflecting wall is lowered with respect to the support , and - an actuator configured to move said deflecting wall between the retracted and deployed positions,
Rubber mixture, characterized in that it contains 80 to 100 phr of alkylated chlorosulfonated polyethylene (ACSM) and/or chlorosulfonated polyethylene (CSM) and 0.2 to 2 phr of at least one quinone dioxime as an adhesive.
A pre-visualization device for movie, game, and other digital media creation, the pre-visualization device , comprising: one or more markers ; a motion capture camera system ; wherein the one or more marker(s) is/are adapted to be physically located and moveable on a marker plane embodied as a display table having a display , wherein each marker comprises means adapted to provide position data in relation to its physically located position (P) on the marker plane , and wherein the motion capture camera system comprises a plurality of cameras mounted attached to a frame adapted to be placed around and physically separate from the marker plane , and wherein a position and possibly movement of the one or more markers is captured using the motion capture camera system . one or more markers ; a motion capture camera system ; wherein the one or more marker(s) is/are adapted to be physically located and moveable on a marker plane embodied as a display table having a display , wherein each marker comprises means adapted to provide position data in relation to its physically located position (P) on the marker plane , and wherein the motion capture camera system comprises a plurality of cameras mounted attached to a frame adapted to be placed around and physically separate from the marker plane , and wherein a position and possibly movement of the one or more markers is captured using the motion capture camera system .
A peptide set forth in the following SEQ ID NO: 1, wherein the peptide binds to a transcription factor CP2c and has prophylactic and therapeutic activities against cancer: <SEQ ID NO: 1> Tyr-Pro-Gln-Arg wherein acetyl and amide groups are bound to N-terminal Tyr and C-terminal Arg of the peptide set forth in SEQ ID NO: 1, respectively.
An ear-worn device system comprising: an ear-worn device comprising a control circuit ; sensor package in communication with the control circuit; a power supply circuit in electrical communication with the control circuit; wherein the system is configured to monitor device wearer movement with a movement sensor; identify a movement pattern consistent with an equilibrium disorder; estimate the characteristics of the equilibrium disorder; and apply stimulation to at least one of the right ear, left ear, and brainstem using the ear-worn device, characterized in that estimating the characteristics of the equilibrium disorder includes estimating the lateral distribution of the equilibrium disorder an ear-worn device comprising a control circuit ; sensor package in communication with the control circuit; a power supply circuit in electrical communication with the control circuit; wherein the system is configured to monitor device wearer movement with a movement sensor; identify a movement pattern consistent with an equilibrium disorder; estimate the characteristics of the equilibrium disorder; and apply stimulation to at least one of the right ear, left ear, and brainstem using the ear-worn device, characterized in that estimating the characteristics of the equilibrium disorder includes estimating the lateral distribution of the equilibrium disorder
A method for de-icing a rotor blade of a wind turbine , the wind turbine having a nacelle mounted atop a tower , the nacelle having a rotor with a rotatable hub having the rotor blade mounted thereto, the method comprising: shutting down the wind turbine ; characterized by : positioning the wind turbine in a de-icing position, the de-icing position comprising yawing the nacelle of the wind turbine such that the rotor is in a down-wind location of the tower , rotating the rotatable hub so as to place the rotor blade in a substantially six o'clock position, and pitching the rotor blade such that a leading edge of the rotor blade is facing the tower ; and de-icing the rotor blade while the wind turbine is in the de-icing position. positioning the wind turbine in a de-icing position, the de-icing position comprising yawing the nacelle of the wind turbine such that the rotor is in a down-wind location of the tower , rotating the rotatable hub so as to place the rotor blade in a substantially six o'clock position, and pitching the rotor blade such that a leading edge of the rotor blade is facing the tower ; and de-icing the rotor blade while the wind turbine is in the de-icing position.
Sealing gasket , for sealing a connection between an exhaust manifold and a turbine (6.2) of a vehicle , the sealing gasket comprising two flow passage openings separated by a dividing wall and a first sealing portion extending around the two openings, in which the sealing gasket comprises at least a second sealing portion extending around one of the two openings, and a third sealing portion extending around the other of the two openings, each sealing portion is a sealing bead, that is integral with the rest of the gasket, in which the sealing gasket is in the form of a plate and sealing portions protrude at least on one side of the plate, characterized in that the sealing gasket is made of a single steel layer, and in that the first sealing portion has a height (H1), measured over the thickness of the sealing gasket , that is at least 20% higher than the heights (H2, H3) of the second and third sealing portions .
A method for integrating a messaging conversation with a location sharing event, the method comprising: Receiving, at a first mobile communication device, a message from a second mobile communication device through a first communication mode; parsing, by an integrated location sharing application on the first mobile communication device, the message to determine whether the message includes an indication of time, an indication of location, or both; and upon determining one of the indications, providing, by the integrated location sharing application, a prompt to a recipient of the message to send the location sharing event to the second mobile communication device, wherein the location sharing event is sent as a link representative of a current location of the first mobile communication device. Receiving, at a first mobile communication device, a message from a second mobile communication device through a first communication mode; parsing, by an integrated location sharing application on the first mobile communication device, the message to determine whether the message includes an indication of time, an indication of location, or both; and upon determining one of the indications, providing, by the integrated location sharing application, a prompt to a recipient of the message to send the location sharing event to the second mobile communication device, wherein the location sharing event is sent as a link representative of a current location of the first mobile communication device.
A method of exercising a person's fitness with a device comprising a negative pressure chamber, comprising the steps of: - Pre-programming the pressure variation within the negative pressure chamber via a data processing means, - enclosing a portion of the human body within the negative pressure chamber, - Implementing of a program of pressure values within the negative pressure chamber for a predetermined period of time, based on the individual's condition and the expected outcome, characterised in that , the pre-programming of the pressure variation within the negative pressure chamber includes: - Segmenting the predetermined time into two or more consecutive time intervals. - Determining the pressure value at each of the two or more successive time intervals, wherein the segmentation of the predetermined time comprises six consecutive time intervals, said consecutive time intervals including a first time interval of about 2 minutes, a second time interval of about 3-6 minutes, a third of about 4-13 minutes, a fourth of about 8-14 minutes, a fifth of about 3-9 minutes, and a sixth of about 2 minutes, and wherein the total time of the predetermined time is between 30-40 minutes, wherein the pressure values are alternated during each successive time interval, wherein the alternating comprises modifying the pressure values during each time interval. - Pre-programming the pressure variation within the negative pressure chamber via a data processing means, - enclosing a portion of the human body within the negative pressure chamber, - Implementing of a program of pressure values within the negative pressure chamber for a predetermined period of time, based on the individual's condition and the expected outcome, - Segmenting the predetermined time into two or more consecutive time intervals. - Determining the pressure value at each of the two or more successive time intervals, wherein the segmentation of the predetermined time comprises six consecutive time intervals, said consecutive time intervals including a first time interval of about 2 minutes, a second time interval of about 3-6 minutes, a third of about 4-13 minutes, a fourth of about 8-14 minutes, a fifth of about 3-9 minutes, and a sixth of about 2 minutes, and wherein the total time of the predetermined time is between 30-40 minutes, wherein the pressure values are alternated during each successive time interval, wherein the alternating comprises modifying the pressure values during each time interval.
A method for calibrating a time-to-digital converter system with at least one time-to-digital converter comprising an oscillator (RO, RO1, RO2), in particular a ring oscillator, a counter being driven by the oscillator, an evaluation block connected to the counter and configured for determining a time difference associated with a start signal and a stop signal, and a histogram block (HIST, HIST1, HIST2) with a number of bins for recording entries associated with the time difference, the method comprising: - operating or preparing to operate the time-to-digital converter system with a measurement clock signal (MCLK) defining a measurement interval (TM); - providing a calibration clock signal (CCLK) having a frequency higher than the measurement clock signal (MCLK) by a predefined ratio; - using a selected clock edge (ph0) of the calibration clock signal (CCLK) as the start signal (STRT) and a subsequent clock edge (ph1, ph2) of the calibration clock signal (CCLK) as the stop signal (STP1, STP2); - determining, with the evaluation block, a calibration time difference based on the respective clock edges (ph0, ph1, ph2) of the calibration clock signal used as the start signal (STRT) and the stop signal (STP1, STP2); and - determining a time measure associated with a counter step of the counter based on the predefined ratio and the calibration time difference. - operating or preparing to operate the time-to-digital converter system with a measurement clock signal (MCLK) defining a measurement interval (TM); - providing a calibration clock signal (CCLK) having a frequency higher than the measurement clock signal (MCLK) by a predefined ratio; - using a selected clock edge (ph0) of the calibration clock signal (CCLK) as the start signal (STRT) and a subsequent clock edge (ph1, ph2) of the calibration clock signal (CCLK) as the stop signal (STP1, STP2); - determining, with the evaluation block, a calibration time difference based on the respective clock edges (ph0, ph1, ph2) of the calibration clock signal used as the start signal (STRT) and the stop signal (STP1, STP2); and - determining a time measure associated with a counter step of the counter based on the predefined ratio and the calibration time difference.
A modified starch of which a particle diameter distribution waveform exhibits a single peak, wherein a 10 mass% paste liquid of the modified starch has an RVA peak viscosity that is 5% or less of the RVA peak viscosity of an unmodified starch serving as a raw material, and the difference between the maximum particle diameter and the minimum particle diameter is 2 μ m or less.
A process for the manufacture of a bonding wire comprising a core with a surface, wherein the core comprises ≥ 98.0% copper and has a cross sectional area in the range of 7500 to 600000 μm 2 and an elastic limit RP0.2 (yield strength) in the range of 40 to 95 N/mm 2 , the process comprising the steps of (a) providing a copper core precursor; (b) drawing the precursor until a final diameter of the wire core is reached; (c) annealing the drawn wire at a minimum annealing temperature in the range of 650 to 1000 °C through its entire cross section for a minimum annealing time in the range of 4 seconds to 2 hours. (a) providing a copper core precursor; (b) drawing the precursor until a final diameter of the wire core is reached; (c) annealing the drawn wire at a minimum annealing temperature in the range of 650 to 1000 °C through its entire cross section for a minimum annealing time in the range of 4 seconds to 2 hours.
A turbine blade for a gas turbine engine , wherein the turbine blade comprises a root , a tip and an aerofoil the aerofoil comprises a pressure wall , a suction wall and an internal web extending between the pressure wall and the suction wall and defining a gap adjacent the tip and at least two main coolant passages ; wherein coolant enters one of the at least two main coolant passages via the root and flows radially outwards towards the tip before turning and flowing radially inwardly towards the root along another of the at least two main coolant passages ; the suction wall comprises an inner leaf and an outer leaf that define a cavity , the suction wall further comprising a plurality of cooling passages that run in a chordal direction relative to the aerofoil; an inner surface of the suction wall comprise corrugations and a coolant hole inlet to an impingement hole ; and the corrugations are arranged transverse to a coolant flow through the main coolant passages of the aerofoil ; wherein the corrugations further comprise a peak , a trough , a downstream facing surface and an upstream facing surface with respect to the coolant flow (51 and the coolant hole inlet to the impingement hole being configured to pass a portion of the main gas flow into the cooling passage of the suction wall ; the turbine blade being characterised in that the coolant hole inlet is defined on the downstream facing surface and in that the coolant hole inlet is located anywhere on the downstream facing surface between the peak and the trough . the aerofoil comprises a pressure wall , a suction wall and an internal web extending between the pressure wall and the suction wall and defining a gap adjacent the tip and at least two main coolant passages ; wherein coolant enters one of the at least two main coolant passages via the root and flows radially outwards towards the tip before turning and flowing radially inwardly towards the root along another of the at least two main coolant passages ; the suction wall comprises an inner leaf and an outer leaf that define a cavity , the suction wall further comprising a plurality of cooling passages that run in a chordal direction relative to the aerofoil; an inner surface of the suction wall comprise corrugations and a coolant hole inlet to an impingement hole ; and the corrugations are arranged transverse to a coolant flow through the main coolant passages of the aerofoil ; wherein the corrugations further comprise a peak , a trough , a downstream facing surface and an upstream facing surface with respect to the coolant flow (51 and the coolant hole inlet to the impingement hole being configured to pass a portion of the main gas flow into the cooling passage of the suction wall ; the turbine blade being characterised in that the coolant hole inlet is defined on the downstream facing surface and in that the coolant hole inlet is located anywhere on the downstream facing surface between the peak and the trough .