mhurhangee/ep-ind-claims huggingface dataset:
A recombinant DNA molecule, wherein the nucleotide sequence of said molecule comprises a sequence: (a) selected from the group consisting of SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:7, SEQ ID NO:8, SEQ ID NO:9, SEQ ID NO:10, SEQ ID NO:21, and SEQ ID NO:25; or (b) a nucleotide sequence completely complementary to (a); or (c) a nucleotide sequence having at least 99% identity to SEQ ID NO:1 or its full complement; wherein the presence of such DNA molecule is diagnostic for the construct comprised within corn event MON 87411 DNA in said sample. (a) selected from the group consisting of SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:7, SEQ ID NO:8, SEQ ID NO:9, SEQ ID NO:10, SEQ ID NO:21, and SEQ ID NO:25; or (b) a nucleotide sequence completely complementary to (a); or (c) a nucleotide sequence having at least 99% identity to SEQ ID NO:1 or its full complement;
A method of producing carbon nanotubes, comprising: a catalyst particle forming step of heating and reducing a catalyst raw material to form catalyst particles, and a carbon nanotube synthesizing step of flowing a raw material gas onto the heated catalyst particles to synthesize carbon nanotubes, characterized in that a carbon-containing compound gas without an unsaturated bond is flowed onto the catalyst raw material and/or the catalyst particles in both the catalyst particle forming step and the carbon nanotube synthesizing step, the raw material gas contains acetylene, and the carbon-containing compound gas without an unsaturated bond is methane. a catalyst particle forming step of heating and reducing a catalyst raw material to form catalyst particles, and a carbon nanotube synthesizing step of flowing a raw material gas onto the heated catalyst particles to synthesize carbon nanotubes, characterized in that a carbon-containing compound gas without an unsaturated bond is flowed onto the catalyst raw material and/or the catalyst particles in both the catalyst particle forming step and the carbon nanotube synthesizing step, the raw material gas contains acetylene, and the carbon-containing compound gas without an unsaturated bond is methane.
An edge-emitting laser (202; 400) connectable to a waveguide and to a display including a plurality of pixels, the edge-emitting laser comprising: an active gain section configured to amplify an optical power of light across a wavelength range; a reflector section optically coupled to the active gain section and configured to selectively reflect light of a selected wavelength within the wavelength range, wherein the selected wavelength is tunable via high-frequency index modulation of the reflector section, wherein the active gain section and the reflector section collectively form an optical cavity configured to lase coherent light in the selected wavelength into the waveguide and to the display; and a controller configured to modulate a voltage of a waveform applied to the reflector section to tune the selected wavelength of the coherent light lased by the optical cavity between a plurality of different lasing spectra at a frequency to produce a time average lasing spectrum of the plurality of different lasing spectra at each pixel with a bandwidth that is wider than each of the individual different lasing spectra such that fringe interference due to the coherent light propagating through the waveguide is reduced. an active gain section configured to amplify an optical power of light across a wavelength range; a reflector section optically coupled to the active gain section and configured to selectively reflect light of a selected wavelength within the wavelength range, wherein the selected wavelength is tunable via high-frequency index modulation of the reflector section, wherein the active gain section and the reflector section collectively form an optical cavity configured to lase coherent light in the selected wavelength into the waveguide and to the display; and a controller configured to modulate a voltage of a waveform applied to the reflector section to tune the selected wavelength of the coherent light lased by the optical cavity between a plurality of different lasing spectra at a frequency to produce a time average lasing spectrum of the plurality of different lasing spectra at each pixel with a bandwidth that is wider than each of the individual different lasing spectra such that fringe interference due to the coherent light propagating through the waveguide is reduced.
Q-switched solid-state laser comprising an active lasing medium in the form of Nd:YAG, Yb:YAB or Er:YAG and a linear resonator (3, 30) that is non-convoluted or convoluted and has a resonator length (a) of less than 50 mm measured along the axis of the laser beam in the resonator, with either just one longitudinal mode oscillating in the resonator or one longitudinal fundamental mode and further modes oscillating in the resonator, the energy of said further modes being less than 10% of the energy of the fundamental mode, and said resonator also having both a passive Q-switch and an active Q-switch, the loss induced by the active Q-switch when in the activated state being less than 50% in relation to a round trip by the resonator, characterised in that the resonator (3, 30) is formed as an unstable resonator, one of the mirrors (4, 5) being a gradient mirror, and in that the maximum loss induced by the passive Q-switch is more than 50% in relation to a round trip by the resonator, the pulse duration of one pulse of the solid-state laser being less than 500 ps, and the pulse energy of one pulse being more than 1 mJ.
A press molding method of draw forming a plate material into a predetermined shape, clamping the material from both sides thereof using clamping faces (11, 21, 12, 22) facing, approaching and separating from each other, the method comprising, before the drawing of the material by means of a punch: a first clamping step of clamping the material at a portion where a depth of drawing to the predetermined shape is comparatively deep in the clamped portion of the material; and a second clamping step of clamping the material at a portion where the depth of drawing is comparatively shallow in the clamped portion of the material, wherein between the first clamping step and the second clamping step, the material is introduced to deform such that the portion clamped in the second clamping is positioned in the drawing direction side with respect to the portion clamped in the first clamping, the drawing direction side being the pressing direction for the material by the punch, that is, the approaching direction of the punch to an upper mold in draw forming the material, wherein the clamping faces (12, 22) used for the second clamping are inclined in accordance with a deformation angle of the material at the introduction,and wherein the introduction applied to the material is performed by means of the approach of the clamping faces (12, 22) used for the second clamping. a first clamping step of clamping the material at a portion where a depth of drawing to the predetermined shape is comparatively deep in the clamped portion of the material; and a second clamping step of clamping the material at a portion where the depth of drawing is comparatively shallow in the clamped portion of the material, wherein between the first clamping step and the second clamping step, the material is introduced to deform such that the portion clamped in the second clamping is positioned in the drawing direction side with respect to the portion clamped in the first clamping, the drawing direction side being the pressing direction for the material by the punch, that is, the approaching direction of the punch to an upper mold in draw forming the material, wherein the clamping faces (12, 22) used for the second clamping are inclined in accordance with a deformation angle of the material at the introduction,and wherein the introduction applied to the material is performed by means of the approach of the clamping faces (12, 22) used for the second clamping.
Method for operating a work machine by means of a touch-sensitive screen, characterized in that the screen has an actuator for generating force feedback and/or a force sensor for sensing an operating force which is applied to the screen when the screen is touched, wherein the method comprises the following steps: reading in a trajectory specification which represents a trajectory of the work machine and/or of a boom (104, 106) of the work machine, which is input by an operator of the work machine by touching the screen; and outputting an actuator signal for actuating the actuator and/or a force-changing signal for changing a force threshold value which represents a minimum operating force which is necessary to input the trajectory, using the trajectory specification. reading in a trajectory specification which represents a trajectory of the work machine and/or of a boom (104, 106) of the work machine, which is input by an operator of the work machine by touching the screen; and outputting an actuator signal for actuating the actuator and/or a force-changing signal for changing a force threshold value which represents a minimum operating force which is necessary to input the trajectory, using the trajectory specification.
Windscreen wiper drive motor device for a motor vehicle, comprising a support, a shaft being received therein, said shaft bearing an endless screw which is capable of being driven in rotation by a motor of said device, the support comprising a bush mounting, a bush being received therein, said bush supporting one end of the shaft bearing the endless screw, an orifice being formed in the end of the bush mounting in the axis of rotation of the shaft, said motor device comprising a closing plate, said plate comprising a base closing said support, said motor device being characterised in that the closing plate comprises a closing tongue which is made of the same material as the base and serves as a water deflector for an orifice formed in the end of the bush mounting in the axis of rotation of the shaft.
A method for measurement reporting performed by a user equipment, UE, wherein the method comprises: receiving a measurement configuration from a base station, wherein (a) the measurement configuration comprises a measurement object for a given frequency to which one serving cell corresponds and (b) the measurement configuration comprises a report configuration associated with a measurement ID that corresponds to the measurement object; generating a measurement report that includes measurement results of the one serving cell, wherein each of the measurement results is a cell-specific reference signal, CRS, measurement result or a channel state information reference signal, CSI-RS, measurement result, and wherein, in a case that the report configuration is related to a CSI-RS, the measurement results comprise at least one CRS measurement result and at least one CSI-RS measurement result, and in a case that the report configuration is not related to a CSI-RS, each of the measurement results is a CRS measurement result; and sending the measurement report to the base station, wherein the at least one CSI-RS measurement result indicates a measurement result of each of one or more best configured CSI-RSs, and a total number of the one or more best configured CSI-RSs is configured such that the total number is not more than a maximum number configured in the report configuration. receiving a measurement configuration from a base station, wherein (a) the measurement configuration comprises a measurement object for a given frequency to which one serving cell corresponds and (b) the measurement configuration comprises a report configuration associated with a measurement ID that corresponds to the measurement object; generating a measurement report that includes measurement results of the one serving cell, wherein each of the measurement results is a cell-specific reference signal, CRS, measurement result or a channel state information reference signal, CSI-RS, measurement result, and wherein, in a case that the report configuration is related to a CSI-RS, the measurement results comprise at least one CRS measurement result and at least one CSI-RS measurement result, and in a case that the report configuration is not related to a CSI-RS, each of the measurement results is a CRS measurement result; and sending the measurement report to the base station, wherein the at least one CSI-RS measurement result indicates a measurement result of each of one or more best configured CSI-RSs, and a total number of the one or more best configured CSI-RSs is configured such that the total number is not more than a maximum number configured in the report configuration.
Method for preparing a (meth)acrylic acid polymer in aqueous solution, said polymer having a molecular mass lower than 8.000 g/mol, determined by size exclusion chromatography as described in the description, comprising the following steps: a) a copper (meth)acrylate or a copper maleate is prepared in a synthesis reactor, b) an iron salt, for example iron sulfate, or one of its hydrated derivatives, is introduced into the reactor, c) the reactor is heated to a temperature of at least 60°C, d) the following compounds are introduced into the reactor, continuously and simultaneously: d1) the (meth)acrylic monomer(s) to be polymerized, d2) a polymerization initiator system, for example hydrogen peroxide. a) a copper (meth)acrylate or a copper maleate is prepared in a synthesis reactor, b) an iron salt, for example iron sulfate, or one of its hydrated derivatives, is introduced into the reactor, c) the reactor is heated to a temperature of at least 60°C, d) the following compounds are introduced into the reactor, continuously and simultaneously: d1) the (meth)acrylic monomer(s) to be polymerized, d2) a polymerization initiator system, for example hydrogen peroxide. d1) the (meth)acrylic monomer(s) to be polymerized, d2) a polymerization initiator system, for example hydrogen peroxide.
A method for determining the presence or absence of a chromosome aneuploidy, comprising: (a) obtaining counts of nucleotide sequence reads mapped to genomic sections of a reference genome, which sequence reads are: (i) reads of circulating cell-free nucleic acid from a test sample from a pregnant female, and (ii) reads from nucleic acid fragments that are shorter than 160 bases, wherein obtaining counts comprises removing nucleotide sequence reads that are from fragments equal to or longer than 160 bases; (b) normalizing the counts, thereby generating normalized counts of sequence reads mapped to the genomic sections; and (c) determining the presence or absence of a chromosome aneuploidy according to the normalized counts. (a) obtaining counts of nucleotide sequence reads mapped to genomic sections of a reference genome, which sequence reads are: (i) reads of circulating cell-free nucleic acid from a test sample from a pregnant female, and (ii) reads from nucleic acid fragments that are shorter than 160 bases, wherein obtaining counts comprises removing nucleotide sequence reads that are from fragments equal to or longer than 160 bases; (i) reads of circulating cell-free nucleic acid from a test sample from a pregnant female, and (ii) reads from nucleic acid fragments that are shorter than 160 bases, wherein obtaining counts comprises removing nucleotide sequence reads that are from fragments equal to or longer than 160 bases; (b) normalizing the counts, thereby generating normalized counts of sequence reads mapped to the genomic sections; and (c) determining the presence or absence of a chromosome aneuploidy according to the normalized counts.
A display comprising: an uneven-structure-forming layer having an uneven structure on one surface; and a reflecting layer that covers at least part of an unevenly structured surface of the uneven-structure-forming layer, characterized in that: the uneven-structure-forming layer includes a first region group including a plurality of first regions, each first region including a flat part and a plurality of convexities or a plurality of concavities, a top surface of each of the convexities or a bottom surface of each of the concavities is substantially parallel to a surface of the flat part; distances between the centers of adjacent convexities or concavities are not equal; the convexities have a uniform height, or the concavities have a uniform depth; and the first region group is formed, with the first regions arrayed inside at a regular pitch; characterised in that each of the first regions is provided with an identical uneven structure that includes the plurality of convexities or the plurality of concavities and the flat part surrounding the plurality of convexities or the plurality of concavities. an uneven-structure-forming layer having an uneven structure on one surface; and a reflecting layer that covers at least part of an unevenly structured surface of the uneven-structure-forming layer, characterized in that: the uneven-structure-forming layer includes a first region group including a plurality of first regions, each first region including a flat part and a plurality of convexities or a plurality of concavities, a top surface of each of the convexities or a bottom surface of each of the concavities is substantially parallel to a surface of the flat part; distances between the centers of adjacent convexities or concavities are not equal; the convexities have a uniform height, or the concavities have a uniform depth; and the first region group is formed, with the first regions arrayed inside at a regular pitch; characterised in that each of the first regions is provided with an identical uneven structure that includes the plurality of convexities or the plurality of concavities and the flat part surrounding the plurality of convexities or the plurality of concavities. the uneven-structure-forming layer includes a first region group including a plurality of first regions, each first region including a flat part and a plurality of convexities or a plurality of concavities, a top surface of each of the convexities or a bottom surface of each of the concavities is substantially parallel to a surface of the flat part; distances between the centers of adjacent convexities or concavities are not equal; the convexities have a uniform height, or the concavities have a uniform depth; and the first region group is formed, with the first regions arrayed inside at a regular pitch; characterised in that each of the first regions is provided with an identical uneven structure that includes the plurality of convexities or the plurality of concavities and the flat part surrounding the plurality of convexities or the plurality of concavities.
An electronic apparatus comprising: a communicator; a storage storing information on locations matched with each of a plurality of activities; and a processor configured to: receive motion information from a wearable device, the motion information being generated based on a motion of the wearable device, based on the motion information, identify an activity of a user wearing the wearable device, the activity corresponding to the motion information, identify a location matched with the identified activity, store the identified location as location information of an IoT, Internet of Thing, device located within a predetermined distance from the wearable device, and based on receiving a control signal for controlling the loT device located in a specific location through the communicator, control the loT device located in the specific location based on the location information. a communicator; a storage storing information on locations matched with each of a plurality of activities; and a processor configured to: receive motion information from a wearable device, the motion information being generated based on a motion of the wearable device, based on the motion information, identify an activity of a user wearing the wearable device, the activity corresponding to the motion information, identify a location matched with the identified activity, store the identified location as location information of an IoT, Internet of Thing, device located within a predetermined distance from the wearable device, and based on receiving a control signal for controlling the loT device located in a specific location through the communicator, control the loT device located in the specific location based on the location information. receive motion information from a wearable device, the motion information being generated based on a motion of the wearable device, based on the motion information, identify an activity of a user wearing the wearable device, the activity corresponding to the motion information, identify a location matched with the identified activity, store the identified location as location information of an IoT, Internet of Thing, device located within a predetermined distance from the wearable device, and based on receiving a control signal for controlling the loT device located in a specific location through the communicator, control the loT device located in the specific location based on the location information.
Weapon simulator for simulating safety-critical situations, comprising at least one image reproduction unit on which the simulated situations can be visually displayed, at least one simulation weapon which a user uses in the weapon simulator, sensors (12; 18, 19, 20) for detecting an operating state and a use of the simulation weapon and for emitting corresponding sensor signals, a processor that simulates the current safety-critical situation on the basis of the sensor signals and identifies corresponding image signals and transmits these to the image reproduction unit, characterised in that the simulation weapon is a simulated manually thrown projectile, in that at least one of the sensors (12; 18, 19, 20) is designed identify a position of the manually thrown projectile and/or to detect at least a part of a trajectory of the manually thrown projectile before or during a throw by the user and to generate corresponding sensor signals, and in that the processor is designed to simulate the entire trajectory of the manually thrown projectile on the basis of the sensor signals and to identify corresponding image signals and transmit these to the image reproduction unit.
Screen belt system for a beach cleaning vehicle, comprising a flexible, sheet-type screen belt arrangement (2, 2'), which is deflected by means of at least two deflection shafts (3, 3a, 3', 4), with at least one thereof being driven by a drive unit, characterized in that the screen belt arrangement (2, 2') is provided with lengthwise extending outer straps (10, 10') on opposite longitudinal sides, in that the screen belt arrangement (2, 2') has at least one screen belt fabric (8, 8'), and in that transversely extending reinforcing profiles (15, 15') are provided, each extending over a working width of the at least one screen belt fabric (8, 8') and being connected to the at least one screen belt fabric (8, 8') and attached to the outer straps (10, 10') on the face end side.