mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for situation dependent wheel angle ( δ w ) control by a highly autonomous drive system or an advanced driver assistance system of a road vehicle , the highly autonomous drive system or advanced driver assistance system being arranged to receive internal state data from one or more road vehicle internal state measurement units and at least one of ambient information on the road vehicle surroundings from one or more road vehicle surrounding monitoring cameras and map data relating to the road vehicle surroundings from a road vehicle localization system , the apparatus comprising: a lateral controller arranged to receive from the highly autonomous drive system or advanced driver assistance system information on a desired path , and to output a wheel angle request ( δ w,r ); a power steering control module comprising a wheel angle controller arranged to receive as inputs the wheel angle request ( δ w,r ) from the lateral controller as well as wheel angle ( δ w ) and wheel angle rate ( δ̇ w ) data, and to output an overlay torque request suitable for a motor controller of a steering system of the road vehicle , wherein the highly autonomous drive system or advanced driver assistance system is arranged to generate a penalty measure indicative of how penalties should be handled in the lateral controller based on the internal state data and at least one of the ambient information and the map data and, that the lateral controller further is arranged to calculate gain parameters ( I δ w , I δ̇ w ), based on the penalty measure and to output to the wheel angle controller the calculated gain parameters ( I δ w , I δ̇ w ); and characterized in that the wheel angle controller further is arranged to receive and use the gain parameters ( I δ w , I δ̇ w ) in control loops of the wheel angle controller , such that the bandwidth of the wheel angle controller is increased if one or more of the ambient information , the map data and the internal state data indicate a need for increased control speed and accuracy for safely tracking the desired path , and reduced if one or more of the ambient information , the map data and the internal state data indicate that decreased control speed and accuracy can be allowed whilst still safely tracking the desired path , wherein the wheel angle controller is arranged to execute a wheel angle control loop and a wheel angle rate control loop and that the lateral controller is arranged to calculate a gain parameter ( I δ w ) for the wheel angle control loop and a gain parameter ( I δ̇ w ) for the wheel angle rate control loop of the wheel angle controller .
An isobaric stable isotope-containing phosphorylated protein labeling reagent comprising a structural formula as follows: wherein a is 14 or 15; b is 12 or 13; c is 16 or 18; d is 1 or 2; n is 1, 2, 3, 4, or 5 and preferably 1 or 2; n 1 is 0, 1, or 2 and preferably 0 or 1; R 1 is a side chain substituent of an L or D -configuration amino acid with or without a stable isotope, and preferably R 1 is methyl; and R 2 is a side chain substituent of an amino acid with or without a stable isotope, and preferably R 2 is hydrogen.
A monitoring method for monitoring a set of meters , each meter being arranged to measure a stream supplied to an installation by a distribution network, all of the meters being connected to a common remote processor device , the monitoring method comprising both first steps performed in each meter, for: · acquiring primary measurements of a magnitude representative of the occurrence of an anomaly associated with said meter; · selecting pertinent measurements from the primary measurements, the pertinent measurements satisfying a pertinence criterion; · regularly transmitting the pertinent measurements to the remote processor device; and second steps performed in the remote processor device , for: · comparing, for each meter, the pertinent measurements with a detection threshold common to all of the meters of the set of meters in order to attempt detecting an anomaly associated with said meter; · adjusting the detection threshold dynamically as a function of the percentage of meters detected as being associated with an anomaly. · acquiring primary measurements of a magnitude representative of the occurrence of an anomaly associated with said meter; · selecting pertinent measurements from the primary measurements, the pertinent measurements satisfying a pertinence criterion; · regularly transmitting the pertinent measurements to the remote processor device; · comparing, for each meter, the pertinent measurements with a detection threshold common to all of the meters of the set of meters in order to attempt detecting an anomaly associated with said meter; · adjusting the detection threshold dynamically as a function of the percentage of meters detected as being associated with an anomaly.
A solid fuel furnace stovepipe comprising a first connection section , an intermediate area , a second connection portion , an exhaust pipe and a cooling pipe , the intermediate area extending between the first and second connection sections , the first connection section being adapted to be indirectly/directly connected to a solid fuel furnace , the second connection section being adapted to be indirectly/directly connected to a chimney , the exhaust pipe having in the first connection section an exhaust gas receiving opening which is designed to be indirectly/directly connected to an exhaust gas outlet of a solid fuel furnace , wherein the exhaust pipe in the second connection section has an exhaust gas outlet opening which is designed to be indirectly/directly connected to a chimney exhaust pipe, wherein the cooling pipe has a first cooling opening in the first connection section and a second cooling opening in the second connection section , wherein the interior space enclosed by the cooling pipe is fluidically connected to the environment through the first cooling opening and through the second cooling opening , wherein the cooling pipe surrounds the exhaust pipe , at least in the intermediate area , in particular concentrically, wherein the solid fuel furnace stovepipe comprises a third pipe , wherein the third pipe has a supply air receiving opening and a supply air outlet opening , wherein the supply air receiving opening is located in the second connection section , wherein the third pipe surrounds the cooling pipe , at least in the second connection section , in particular concentrically.
A vehicle alarm system comprising a device for operating a sounder to produce a plurality of different alarm sounds, the device comprising a means to provide a plurality of selectable discrete signal trains configured for applying to the sounder to operate the sounder to produce respective different alarm sounds, each discrete signal train being configured so that when that discrete signal train is applied to the sounder , the sound pattern of the alarm sound produced by the sounder is different to the sound patterns of the alarm sounds produced by the sounder when the other ones of the respective discrete signal trains are applied to the sounder , a selector configured to select the discrete signal trains for applying to the sounder , and a control means responsive to each occurrence of an activation signal derived from one of commencement of movement of the vehicle, engagement of a drive gear of the vehicle, activation of a drive switch of the vehicle, and detection of a person or object in or near the path of traverse of the vehicle, to operate the selector to select the discrete signal trains, and to apply the selected discrete signal train to the sounder , characterised in that a storing means stores the plurality of the selectable discrete signal trains in the form of selectable discrete data signals cross-referenced with respective unique identifier codes for facilitating selection of the respective discrete data signals, and the selector is configured to select the discrete data signal from the storing means to be applied to the sounder in one of a predefined order and a random order.
A racking protection device for affixing to a racking component, wherein the racking protection device comprises a housing and vibration monitor, the vibration monitor being arranged to record the vibration transmitting through the housing from the racking component, wherein the device includes an alert for alerting a user when the racking requires inspection for damage to impacts, the vibration monitor being operable to determine a minor impact in response to the peak vibration frequency being between a minimum and maximum pre-set level for a predetermined time period and when a predetermined number of minor impacts is exceeded, the alert is arranged to alert the user to inspect the racking for damage, and the vibration monitor also being operable to determine that a severe impact has occurred in response to the vibration frequency exceeding the maximum pre-set level for a predetermined time; and the alert is arranged to alert the user to inspect the racking for damage. wherein the device includes an alert for alerting a user when the racking requires inspection for damage to impacts, the vibration monitor being operable to determine a minor impact in response to the peak vibration frequency being between a minimum and maximum pre-set level for a predetermined time period and when a predetermined number of minor impacts is exceeded, the alert is arranged to alert the user to inspect the racking for damage, and the vibration monitor also being operable to determine that a severe impact has occurred in response to the vibration frequency exceeding the maximum pre-set level for a predetermined time; and the alert is arranged to alert the user to inspect the racking for damage.
A pedal cycle drivetrain comprising: - an epicyclic gear train comprising: - a sun gear rotatable around a main axis; - a planet carrier rotatable around the main axis and carrying one or more planet gears meshed with the sun gear; and - an annulus (17; 17') rotatable around the main axis and meshed with the one or more planet gears; wherein the sun gear, the planet carrier, and the annulus are each exclusively in direct drive with one of: - an input including one or more pedals; - an output including a wheel hub rotatable around the main axis; and - a first electric motor (19; 19'), wherein varying angular velocity of the first electric motor corresponds to a varying effective transmission ratio between the input and the output. - an epicyclic gear train comprising: - a sun gear rotatable around a main axis; - a planet carrier rotatable around the main axis and carrying one or more planet gears meshed with the sun gear; and - an annulus (17; 17') rotatable around the main axis and meshed with the one or more planet gears; wherein the sun gear, the planet carrier, and the annulus are each exclusively in direct drive with one of: - an input including one or more pedals; - an output including a wheel hub rotatable around the main axis; and - a first electric motor (19; 19'), wherein varying angular velocity of the first electric motor corresponds to a varying effective transmission ratio between the input and the output. wherein the sun gear, the planet carrier, and the annulus are each exclusively in direct drive with one of: - an input including one or more pedals; - an output including a wheel hub rotatable around the main axis; and - a first electric motor (19; 19'), - an input including one or more pedals; - an output including a wheel hub rotatable around the main axis; and - a first electric motor (19; 19'), wherein varying angular velocity of the first electric motor corresponds to a varying effective transmission ratio between the input and the output.
Main shaft fixture for fixation of a main shaft on a wind turbine during execution of installation and repair work on heavy parts of a wind turbine, where the fixture is divided up into a number of sections for mounting on stable structural parts structural parts in a nacelle in a wind turbine, including the bottom frame of the nacelle, wherein the main shaft fixture comprises at least three radial displaceable pressure mandrels , substantially symmetrical located around the centre axis of the main shaft, the ends of said pressure mandrels facing the main shaft are furnished with a tap shoe , and said pressure mandrels being displaceable between a passive, withdrawn lockable position where the tap shoes are configured to be located at a distance from the surface of the main shaft and an active, advanced lockable position where the tap shoes are configured to be engaged with the main shaft , and wherein the main shaft fixture comprises a rotor lock for fixation of the rotor of the wind turbine, and that the rotor lock consists of a flange element, whose bolt circle geometry corresponds to a bolt circle geometry on the rotor, said flange element being fastened at the ends to a first end of two first beam-shaped brackets extending parallel with, and on each side of the main shaft, said beam shaped brackets belonging to the main shaft fixture, and where a second end of the brackets is pivotally mounted with horizontally oriented bolt connections , on other brackets belonging to the main shaft fixture , which are adapted to be anchored on the bottom frame of the nacelle.
Endoscope with an adjustable viewing direction , wherein the viewing direction is pivotable about a pivot axis , comprising optical waveguides , by means of which the illumination light is transferred along the shaft from the proximal end of the endoscope to the distal end of the endoscope, comprising: a stationary reflective surface for reflecting the illumination light from a direction parallel to the longitudinal axis of the endoscope into a direction parallel to the pivot axis of the viewing direction; a pivotable reflective surface for reflecting the illumination light from a direction parallel to the pivot axis of the viewing direction into the viewing direction for illuminating an object observed by means of the endoscope , characterized in that at least either the stationary reflective surface or the pivotable reflective surface is curved in order to adapt a spatial region irradiated by the illumination light to the visual field. a stationary reflective surface for reflecting the illumination light from a direction parallel to the longitudinal axis of the endoscope into a direction parallel to the pivot axis of the viewing direction; a pivotable reflective surface for reflecting the illumination light from a direction parallel to the pivot axis of the viewing direction into the viewing direction for illuminating an object observed by means of the endoscope , characterized in that at least either the stationary reflective surface or the pivotable reflective surface is curved in order to adapt a spatial region irradiated by the illumination light to the visual field.
A curable coating composition comprising: an isocyanate-reactive component comprising a polyol, wherein the polyol is a reaction product of an epoxy component and an epoxy-reactive component at a molar ratio of epoxy-reactive groups of the epoxy-reactive component to epoxy groups of the epoxy component from 0.95:1 to 1.5:1, wherein the polyol has an epoxide equivalent weight (EEW) of at least 5,000 grams per equivalent, and wherein the epoxy-reactive component comprises a cashew nutshell liquid; and an isocyanate component comprising an isocyanate compound having at least two isocyanate functionalities. an isocyanate-reactive component comprising a polyol, wherein the polyol is a reaction product of an epoxy component and an epoxy-reactive component at a molar ratio of epoxy-reactive groups of the epoxy-reactive component to epoxy groups of the epoxy component from 0.95:1 to 1.5:1, wherein the polyol has an epoxide equivalent weight (EEW) of at least 5,000 grams per equivalent, and wherein the epoxy-reactive component comprises a cashew nutshell liquid; and an isocyanate component comprising an isocyanate compound having at least two isocyanate functionalities.
An identifying method for identifying an operating mode of a charging/supplying system, the charging/supplying system having a detector and an identifying device, the identifying method comprising: detecting a plurality of detection values from at least one electric connection channel provided between a vehicle and a first external device or provided between the vehicle and a second external device via a connecting portion by the detector, in the charging/supplying system in which the vehicle is connected with the first external device or the second external device via the connecting portion used in common in a charging mode and a supplying mode, the charging mode being a mode in which an electric storage device installed on the vehicle is charged with electric power from the first external device to the electric storage device, the supplying mode being a mode in which electric power is supplied from the vehicle to the second external device, the charging/supplying system being configured to be operated in a selected one of the charging mode and the supplying mode; characterized by : determining whether the operating mode of the charging/supplying system is the charging mode or the supplying mode by the identifying device, based on a) a combination (condition 1, condition 2, condition 3, condition 4) of the plurality of detection values detected by the detector and b) a correspondence relationship between each of the combinations (condition 1, condition 2, condition 3, condition 4) of the plurality of detection values and the operating mode of the charging/supplying system, the correspondence relationship being configured to associate each combination (condition 1, condition 2, condition 3, condition 4) of the plurality of detection values with either the charging mode or the supplying mode when some combinations of detection values from the plurality of detection values indicate the charging mode and the other combinations of detection values from the plurality of detection values indicate the supply mode. determining whether the operating mode of the charging/supplying system is the charging mode or the supplying mode by the identifying device, based on a) a combination (condition 1, condition 2, condition 3, condition 4) of the plurality of detection values detected by the detector and b) a correspondence relationship between each of the combinations (condition 1, condition 2, condition 3, condition 4) of the plurality of detection values and the operating mode of the charging/supplying system, the correspondence relationship being configured to associate each combination (condition 1, condition 2, condition 3, condition 4) of the plurality of detection values with either the charging mode or the supplying mode when some combinations of detection values from the plurality of detection values indicate the charging mode and the other combinations of detection values from the plurality of detection values indicate the supply mode.
A culture medium for the proliferation of pluripotent stem cells while maintaining an undifferentiated state under feeder-free conditions, wherein the medium comprises (i) albumin, (ii) at least one selected from the group consisting of ethanolamine, ethanolamine analogs and pharmaceutically acceptable salts thereof, wherein the concentration of said at least one selected from the group consisting of ethanolamine, ethanolamine analogs and pharmaceutically acceptable salts thereof in the medium is 11 μM - 200 μM, wherein the medium is free of β-mercaptoethanol or contains β-mercaptoethanol at a concentration of not more than 5 μM, wherein the concentration of albumin in the medium is 0.1 g/l - 20 g/l, and wherein the amount of fatty acid carried by the albumin in the medium is not more than 7 mg/g. (i) albumin, (ii) at least one selected from the group consisting of ethanolamine, ethanolamine analogs and pharmaceutically acceptable salts thereof, wherein the concentration of said at least one selected from the group consisting of ethanolamine, ethanolamine analogs and pharmaceutically acceptable salts thereof in the medium is 11 μM - 200 μM,
Method for operating a sensor for measuring an amount of oxygen in an exhaust gas of an internal combustion engine, comprising a sensor element for measuring the amount of oxygen, wherein the sensor element comprises a solid electrolyte , a first electrode , a second electrode , a third electrode and a fourth electrode , wherein the first electrode and the second electrode are connected to the solid electrolyte in such a way that the first electrode , the second electrode and the solid electrolyte form a pump cell , wherein the third electrode and the fourth electrode are connected to the solid electrolyte in such a way that the third electrode , the fourth electrode and the solid electrolyte form a Nernst cell , wherein a Nernst voltage (U vs ) of the Nernst cell is regulated, wherein a measurement signal from the sensor element is ascertained on the basis of a pump current (I P ), wherein a compensation variable is also determined by a signal processing method, wherein at least one corrected measurement signal is determined from the measurement signal and the compensation variable, wherein the amount of the oxygen in the exhaust gas is determined from the corrected measurement signal, wherein the compensation variable at least partly depends on the pump current (I P ) and a voltage (U P ) which is applied to the pump cell , wherein the processing of the signal in order to determine the compensation variable includes using a low-pass filter to carry out a low-pass filtering process of the pump current (I P ) and the voltage (U P ) which is applied to the pump cell , wherein a time constant (τ) and/or an amplification factor (G) of the low-pass filter is controlled depending on the voltage (U P ) which is applied to the pump cell or a component (dU P ) of the voltage (U P ) which is applied to the pump cell which changes over time, wherein the time constant (τ) and/or the amplification factor (G) of the low-pass filter is increased if the voltage (U P ) which is applied to the pump cell and/or the component (dU P ) of the voltage (U P ) which is applied to the pump cell reaches a predetermined value, wherein the predetermined value represents a predetermined composition of the exhaust gas, wherein the predetermined composition of the exhaust gas is Lambda = 1.
40-O-(2-hydroxyethyl)-rapamycin for use as the sole active ingredient in the treatment of a solid tumor, wherein the solid tumor is a pancreatic tumor and 40-O-(2-hydroxyethyl)-rapamycin is administered in a unit dosage form for oral administration comprising from 0.25 to 10 mg 40-O-(2-hydroxyethyl)-rapamycin together with one or more pharmaceutically acceptable diluents or carriers.