mhurhangee/ep-ind-claims huggingface dataset:
A method for predicting the risk of transgene silencing, comprising, (a) generating histone methylation/acetylation profile data from a plant's genome using a chromatin immunoprecipitation sequencing (ChIP-seq) assay; (b) assembling the histone methylation/acetylation profile data of step (a) into a histone methylation/acetylation database showing peak numbers of the histone methylation/acetylation profiles; (c) analyzing sequences within 5 kb of at least one transgene insertion site; and (d) comparing the sequences within 5 kb of the transgene insertion site with the histone methylation/acetylation database of step (b);wherein: (i) if two or more peaks of the genic region are identified it is predicted that there is a substantial risk of transgene silencing, or (ii) if fewer than two peaks of the genic region are identified it is concluded that there is no significant risk of gene silencing. (a) generating histone methylation/acetylation profile data from a plant's genome using a chromatin immunoprecipitation sequencing (ChIP-seq) assay; (b) assembling the histone methylation/acetylation profile data of step (a) into a histone methylation/acetylation database showing peak numbers of the histone methylation/acetylation profiles; (c) analyzing sequences within 5 kb of at least one transgene insertion site; and (d) comparing the sequences within 5 kb of the transgene insertion site with the histone methylation/acetylation database of step (b);wherein: (i) if two or more peaks of the genic region are identified it is predicted that there is a substantial risk of transgene silencing, or (ii) if fewer than two peaks of the genic region are identified it is concluded that there is no significant risk of gene silencing. (i) if two or more peaks of the genic region are identified it is predicted that there is a substantial risk of transgene silencing, or (ii) if fewer than two peaks of the genic region are identified it is concluded that there is no significant risk of gene silencing.
A feeder maintenance device comprising: an attachment section configured to have a feeder attached, the feeder being provided with a feeding mechanism (65, 65B) that feeds a storage member that stores a component and being used in a mounting device which mounts the component on a board; a cleaning section (30, 34, 40, 44, 49) configured to clean a specified section including the feeding mechanism (65, 65B) of the feeder; characterized by: a measurement section configured to measure backlash of the feeding mechanism (65, 65B) by determining whether an inspection is passed based on whether the backlash value calculated in backlash inspection is within a specified threshold; and a control section configured to control the cleaning section (30, 34, 40, 44, 49) and to control the measurement section so as to measure the backlash of the feeding mechanism (65, 65B) after controlling the cleaning section (30, 34, 40, 44, 49) so as to clean the specified position using the cleaning section (30, 34, 40, 44, 49). an attachment section configured to have a feeder attached, the feeder being provided with a feeding mechanism (65, 65B) that feeds a storage member that stores a component and being used in a mounting device which mounts the component on a board; a cleaning section (30, 34, 40, 44, 49) configured to clean a specified section including the feeding mechanism (65, 65B) of the feeder; characterized by: a measurement section configured to measure backlash of the feeding mechanism (65, 65B) by determining whether an inspection is passed based on whether the backlash value calculated in backlash inspection is within a specified threshold; and a control section configured to control the cleaning section (30, 34, 40, 44, 49) and to control the measurement section so as to measure the backlash of the feeding mechanism (65, 65B) after controlling the cleaning section (30, 34, 40, 44, 49) so as to clean the specified position using the cleaning section (30, 34, 40, 44, 49). a measurement section configured to measure backlash of the feeding mechanism (65, 65B) by determining whether an inspection is passed based on whether the backlash value calculated in backlash inspection is within a specified threshold; and a control section configured to control the cleaning section (30, 34, 40, 44, 49) and to control the measurement section so as to measure the backlash of the feeding mechanism (65, 65B) after controlling the cleaning section (30, 34, 40, 44, 49) so as to clean the specified position using the cleaning section (30, 34, 40, 44, 49).
A three-dimensional display device (100,210,210,500,410,610) for displaying a 3D image in a 3D space, the 3D image including a hologram, the device comprising: a data obtaining unit (120,320) configured to obtain 3D image data for the 3D image; a display unit (150,360,540,750) configured to display a 3D image in a 3D space; a gaze direction measuring unit (110,310) configured to measure the gaze direction of a user; a data transform unit (140,530,740) configured to transform the 3D image data, based on the measured gaze direction characterized in that the device further comprises: a viewpoint information obtaining unit configured to obtain information relating to a viewpoint of the 3D image, wherein the information relating to a viewpoint of the 3D image comprises a viewpoint direction in which the 3D image is set to be viewed by the user, and is predetermined to be a direction most suitable for displaying the 3D image to the user, or is set based on user input; wherein the data transform unit is configured to transform the 3D image data for the gaze direction to correspond to the viewpoint direction; and wherein the display unit (150,360,540,750) is configured to display a 3D image, based on the transformed 3D image data. a data obtaining unit (120,320) configured to obtain 3D image data for the 3D image; a display unit (150,360,540,750) configured to display a 3D image in a 3D space; a gaze direction measuring unit (110,310) configured to measure the gaze direction of a user; a data transform unit (140,530,740) configured to transform the 3D image data, based on the measured gaze direction characterized in that the device further comprises: a viewpoint information obtaining unit configured to obtain information relating to a viewpoint of the 3D image, wherein the information relating to a viewpoint of the 3D image comprises a viewpoint direction in which the 3D image is set to be viewed by the user, and is predetermined to be a direction most suitable for displaying the 3D image to the user, or is set based on user input; wherein the data transform unit is configured to transform the 3D image data for the gaze direction to correspond to the viewpoint direction; and wherein the display unit (150,360,540,750) is configured to display a 3D image, based on the transformed 3D image data. a viewpoint information obtaining unit configured to obtain information relating to a viewpoint of the 3D image, wherein the information relating to a viewpoint of the 3D image comprises a viewpoint direction in which the 3D image is set to be viewed by the user, and is predetermined to be a direction most suitable for displaying the 3D image to the user, or is set based on user input; wherein the data transform unit is configured to transform the 3D image data for the gaze direction to correspond to the viewpoint direction; and wherein the display unit (150,360,540,750) is configured to display a 3D image, based on the transformed 3D image data.
Use of a diester of formula in a lubricant composition for vehicle equipped with a hybrid engine, to reduce friction when the engine is used at low speed characterized by a number of revolutions per minute (rpm) of between 600 and 2000 rpm and/or when cold, R a -C -O-([C 2] n -O) s -C -R b where: R, each independently, are a hydrogen atom or a linear or branched alkyl group having 1 to 5 carbon atoms; s is 1 or 2; n is 1, 2 or 3, on the understanding that when s differs from 1, the n values can be the same or different; R a and R b, the same or different, are each independently linear or branched, saturated or unsaturated hydrocarbon groups having a linear sequence of 6 to 18 carbon atoms; provided that when s is 2 and n all the same are 2, at least one of the R groups is a linear or branched alkyl group having 1 to 5 carbon atoms; and provided that when s is 1 and n is 3, at least one of the R groups linked to the carbon at beta position of the oxygen atoms of the ester functions is a hydrogen atom. R, each independently, are a hydrogen atom or a linear or branched alkyl group having 1 to 5 carbon atoms; s is 1 or 2; n is 1, 2 or 3, on the understanding that when s differs from 1, the n values can be the same or different; R a and R b, the same or different, are each independently linear or branched, saturated or unsaturated hydrocarbon groups having a linear sequence of 6 to 18 carbon atoms; provided that when s is 2 and n all the same are 2, at least one of the R groups is a linear or branched alkyl group having 1 to 5 carbon atoms; and provided that when s is 1 and n is 3, at least one of the R groups linked to the carbon at beta position of the oxygen atoms of the ester functions is a hydrogen atom.
A gas turbine component, comprising: a ceramic matrix composite substrate having a first surface and a second surface, wherein: the first surface is in fluid communication with a compressed, dry fluid; the second surface is in fluid communication with a hot combustion stream; and the second surface includes a hermetic environmental barrier coating; characterized by at least one opening extending from the first surface through a portion of the CMC substrate and covered by the hermetic environmental barrier coating wherein, upon removal of a fragment of one or both of the hermetic environmental barrier coating and the CMC substrate, the at least one opening selectively permits a flow of the compressed, dry fluid to the second surface and reduces or eliminates volatilization of the CMC substrate in the hot combustion stream. wherein the turbine component is one of a shroud, a shroud ring and a combustion liner. a ceramic matrix composite substrate having a first surface and a second surface, wherein: the first surface is in fluid communication with a compressed, dry fluid; the second surface is in fluid communication with a hot combustion stream; and the second surface includes a hermetic environmental barrier coating; characterized by the first surface is in fluid communication with a compressed, dry fluid; the second surface is in fluid communication with a hot combustion stream; and the second surface includes a hermetic environmental barrier coating; characterized by at least one opening extending from the first surface through a portion of the CMC substrate and covered by the hermetic environmental barrier coating wherein, upon removal of a fragment of one or both of the hermetic environmental barrier coating and the CMC substrate, the at least one opening selectively permits a flow of the compressed, dry fluid to the second surface and reduces or eliminates volatilization of the CMC substrate in the hot combustion stream. wherein the turbine component is one of a shroud, a shroud ring and a combustion liner.
A safety apparatus for a lithium ion battery module characterized in that: a cell terminal collector plate is connected in series between a first terminal of a first battery cell and a second terminal of a second battery cell, the cell terminal collector plate having an open end and a closed end, the open end connected to the first terminal of the first battery cell and the closed end connected to the second terminal of the second battery cell, wherein a lithium ion battery module comprises at least the first battery cell and the second battery cell; and wherein during an expansion of the first battery cell or the second battery cell from cell degradation, the terminals of the battery cell having the degradation move and an open circuit condition is created between the first battery cell and the second battery cell by the open end of the cell terminal collector plate losing contact with the first terminal of the first battery cell. a cell terminal collector plate is connected in series between a first terminal of a first battery cell and a second terminal of a second battery cell, the cell terminal collector plate having an open end and a closed end, the open end connected to the first terminal of the first battery cell and the closed end connected to the second terminal of the second battery cell, wherein a lithium ion battery module comprises at least the first battery cell and the second battery cell; and wherein during an expansion of the first battery cell or the second battery cell from cell degradation, the terminals of the battery cell having the degradation move and an open circuit condition is created between the first battery cell and the second battery cell by the open end of the cell terminal collector plate losing contact with the first terminal of the first battery cell.
A turbine engine component comprising: a substrate; and characterised by a thermal barrier coating deposited onto said substrate said barrier coating comprising one or more layers of a gadolinia stabilised zirconia material which consists of from 30 to 70 wt% gadolinia and the balance zirconia and having a porosity of from 10 to 20%; and means for sealing an outer surface of said thermal barrier coating and limiting molten sand penetration deposited into said thermal barrier coating, wherein said sealing means comprises a plasma sprayed outer ceramic layer deposited onto said thermal barrier coating, said outer ceramic layer consisting of yttria stabilized zirconia and having a porosity in the range of from 2.0 to 30%. a substrate; and characterised by a thermal barrier coating deposited onto said substrate said barrier coating comprising one or more layers of a gadolinia stabilised zirconia material which consists of from 30 to 70 wt% gadolinia and the balance zirconia and having a porosity of from 10 to 20%; and means for sealing an outer surface of said thermal barrier coating and limiting molten sand penetration deposited into said thermal barrier coating, wherein said sealing means comprises a plasma sprayed outer ceramic layer deposited onto said thermal barrier coating, said outer ceramic layer consisting of yttria stabilized zirconia and having a porosity in the range of from 2.0 to 30%.
A light module for motor vehicle headlights, - having a light source unit which has a plurality of semiconductor light sources, arranged in groups for emitting light, - having a primary optical unit, which has optical elements with light input surfaces for coupling] in the light that can be coupled into the optical element as well as light exit faces for coupling light from the optical element through the light exit surface, - having a secondary optical unit, which has a lens device, for projecting the light distribution onto the light exit faces that has been established during operation of the light module into an emission light distribution of the light module, and a lens holder for holding the lens device, wherein the light source unit, the primary optical unit, and the secondary optical unit are embodied as premounted units, which for the final assembly of the light module are joined together along a mounting direction; wherein a first securing device (56, 58) for positionally accurately securing the primary optical unit and of the light source unit to one another is provided; and wherein a second securing device (60, 62) is provided, which is arranged for securing the secondary optical unit positionally accurately relative to the primary optical unit; wherein the second securing device (60, 62) includes a holder frame, which is embodied for being located between the primary optical unit and the secondary optical unit; and wherein the primary optical unit is received between the holder frame and the light source unit, characterized in that the holder frame has a housing securing portion for securing the light module in a headlight housing. - having a light source unit which has a plurality of semiconductor light sources, arranged in groups for emitting light, - having a primary optical unit, which has optical elements with light input surfaces for coupling] in the light that can be coupled into the optical element as well as light exit faces for coupling light from the optical element through the light exit surface, - having a secondary optical unit, which has a lens device, for projecting the light distribution onto the light exit faces that has been established during operation of the light module into an emission light distribution of the light module, and a lens holder for holding the lens device,
A circuit portion comprising: a load circuit portion comprising a load transistor; and a bias circuit portion comprising: a replica transistor matched to the load transistor and connected to the load transistor at a node such that when a current flows through the replica transistor, a current proportional to the current through the replica transistor flows through the load transistor; a current input for receiving an input current (I bias); a supply voltage input for receiving a supply voltage (V DDA); and a feedback loop arranged to adjust a voltage (V reg) at the node connecting the replica transistor and the load transistor such that the replica transistor conducts a current proportional to the input current (I bias); characterised in that: the feedback loop is arranged to counteract variations in the voltage (V reg) at the node connecting the replica transistor and the load transistor arising from changes in the supply voltage (V DDA). a load circuit portion comprising a load transistor; and a bias circuit portion comprising: a replica transistor matched to the load transistor and connected to the load transistor at a node such that when a current flows through the replica transistor, a current proportional to the current through the replica transistor flows through the load transistor; a current input for receiving an input current (I bias); a supply voltage input for receiving a supply voltage (V DDA); and a feedback loop arranged to adjust a voltage (V reg) at the node connecting the replica transistor and the load transistor such that the replica transistor conducts a current proportional to the input current (I bias); a replica transistor matched to the load transistor and connected to the load transistor at a node such that when a current flows through the replica transistor, a current proportional to the current through the replica transistor flows through the load transistor; a current input for receiving an input current (I bias); a supply voltage input for receiving a supply voltage (V DDA); and a feedback loop arranged to adjust a voltage (V reg) at the node connecting the replica transistor and the load transistor such that the replica transistor conducts a current proportional to the input current (I bias);
Method for producing tyres for vehicle wheels, comprising building a plurality of structural components of tyres on respective forming drums (110a, 110b) in a predetermined working station, wherein building said plurality of structural components comprises the following actions: - loading a first forming drum in a first area of a building device provided in said working station by a first manipulator; - moving said first forming drum from said first area to a second area of said building device; - carrying out at least one building activity for building a first structural component of a first tyre on said first forming drum in said second area; - after having carried out said at least one building activity on said first forming drum, moving said first forming drum from said second area to a third area of said building device arranged on an opposite side to said first area with respect to said second area; - unloading said first forming drum from said third area by a second manipulator. - loading a first forming drum in a first area of a building device provided in said working station by a first manipulator; - moving said first forming drum from said first area to a second area of said building device; - carrying out at least one building activity for building a first structural component of a first tyre on said first forming drum in said second area; - after having carried out said at least one building activity on said first forming drum, moving said first forming drum from said second area to a third area of said building device arranged on an opposite side to said first area with respect to said second area; - unloading said first forming drum from said third area by a second manipulator.
A renewal method of an air-conditioning unit for a vehicle in which a first air-conditioning unit, using a first refrigerant, disposed in a frame mounted on a vehicle is renewed to a second air-conditioning unit using a second refrigerant, the renewal method comprising the following steps: - a removal step of removing the first air-conditioning unit from the frame, the first air-conditioning unit including a first compressor, a first heat source side heat exchanger, first pressure reducing means, and a first use side heat exchanger, and removing a connecting wire of an inverter driving the first compressor from the first compressor; - an assembly step of disposing the second air-conditioning unit in the frame, the second air-conditioning unit including a second compressor, a second heat source side heat exchanger, second pressure reducing means, and a second use side heat exchanger and being configured so as to be capable of fitting in the frame, and attaching the connecting wire of the inverter to the second compressor; - a filling step of filling the second refrigerant into the second air-conditioning unit that has been disposed in the frame; and a settings changing step of changing information content preset in a control unit that controls the operating frequency of the inverter, - a control step controlling the control unit, on the basis of the measurement results of at least one of a pressure sensor on a discharge side of the second compressor and a temperature sensor, the operating frequency of the inverter is controlled such that its frequency is increased by 5 to 10% compared to that before the renewal, wherein a circulating amount of refrigerant of the second air-conditioning unit is increased to be larger than a circulating amount of refrigerant of the first air-conditioning unit. - a removal step of removing the first air-conditioning unit from the frame, the first air-conditioning unit including a first compressor, a first heat source side heat exchanger, first pressure reducing means, and a first use side heat exchanger, and removing a connecting wire of an inverter driving the first compressor from the first compressor; - an assembly step of disposing the second air-conditioning unit in the frame, the second air-conditioning unit including a second compressor, a second heat source side heat exchanger, second pressure reducing means, and a second use side heat exchanger and being configured so as to be capable of fitting in the frame, and attaching the connecting wire of the inverter to the second compressor; - a filling step of filling the second refrigerant into the second air-conditioning unit that has been disposed in the frame; and a settings changing step of changing information content preset in a control unit that controls the operating frequency of the inverter, - a control step controlling the control unit, on the basis of the measurement results of at least one of a pressure sensor on a discharge side of the second compressor and a temperature sensor, the operating frequency of the inverter is controlled such that its frequency is increased by 5 to 10% compared to that before the renewal,