mhurhangee/ep-ind-claims huggingface dataset:
A method of joining external elements such as injector cups and/or inlet fitting and/or sensor port and/or brackets to a Gasoline Direct Injection fuel rail by means of brazing, and discontinuously coating only the desired sections on the rail with brazing paste with a view to provide the leak-proof assembly of injector cups, inlet fittings, sensor ports and brackets, being characterised in that: the fuel rail moving on a conveyor band reaches the surface point to be coated with brazing paste; the roller positioned above moves downward and/or the conveyor band below carrying the fuel rail moves upward, so the roller contacts the surface of the rail for an instant and the desired sections on the surface of the rail are coated with the brazing paste, after which the contact of the roller with the surface of the rail is interrupted with the upward movement of the roller or the downward movement of the conveyor band, and the processes described above are repeated when the next fuel rail reaches the surface point to be coated with brazing paste. the fuel rail moving on a conveyor band reaches the surface point to be coated with brazing paste; the roller positioned above moves downward and/or the conveyor band below carrying the fuel rail moves upward, so the roller contacts the surface of the rail for an instant and the desired sections on the surface of the rail are coated with the brazing paste, after which the contact of the roller with the surface of the rail is interrupted with the upward movement of the roller or the downward movement of the conveyor band, and the processes described above are repeated when the next fuel rail reaches the surface point to be coated with brazing paste.
A method of operating a photovoltaic system, the method comprising: receiving a reading of a voltage and a current generated by a plurality of solar cells; detecting a condition that indicates shading of a group of solar cells in the plurality of solar cells; in response to detecting the condition that indicates shading of the group of solar cells, modifying maximum power point tracking of the photovoltaic system to generate a setpoint voltage; and the plurality of solar cells generating the voltage in accordance with the setpoint voltage, characterized in that modifying the maximum power point tracking of the photovoltaic system comprises increasing a step size used to decrement the setpoint voltage. receiving a reading of a voltage and a current generated by a plurality of solar cells; detecting a condition that indicates shading of a group of solar cells in the plurality of solar cells; in response to detecting the condition that indicates shading of the group of solar cells, modifying maximum power point tracking of the photovoltaic system to generate a setpoint voltage; and the plurality of solar cells generating the voltage in accordance with the setpoint voltage, characterized in that modifying the maximum power point tracking of the photovoltaic system comprises increasing a step size used to decrement the setpoint voltage.
Method for removing floating undesired objects from a water mass in an area, comprising the following steps of: a) determining an entry of an object into the area; b) determining properties of the object, which show the undesirability of the object, with image recognition; c) carrying an undesired object in floating state to a temporary storage; and removing undesired objects arranged in the temporary storage, wherein carrying the undesired object in floating state to the temporary storage is done with a vessel which navigates autonomously or is remotely navigated, this such that the vessel reaches the future position of an entered undesired object, whereto the future positions of an entered undesired object are calculated. a) determining an entry of an object into the area; b) determining properties of the object, which show the undesirability of the object, with image recognition; c) carrying an undesired object in floating state to a temporary storage; and removing undesired objects arranged in the temporary storage, wherein carrying the undesired object in floating state to the temporary storage is done with a vessel which navigates autonomously or is remotely navigated, this such that the vessel reaches the future position of an entered undesired object, whereto the future positions of an entered undesired object are calculated.
Force sensor assembly having an axis of measurement along an axial direction of the force sensor assembly, comprising a force ring provided with at least two sensing elements configured to sense the deformation of the force ring, a printed circuit board having electronic components thereon, a covering plate and a sensor cap covering the printed circuit board and covering plate and attached to the force ring, characterized in that the force ring is a metallic force ring, and the covering plate is arranged to hold the printed circuit board onto the force ring.
A towing mirror including: a mount adapted to be mounted to a vehicle cabin; an extension component including a first member or portion extending from said mount and a second member operatively connected to said first member or portion for sliding movement relative thereto from a retracted position to an extended position; and a mirror component operatively connected to said second member for pivoting movement relative thereto about a generally horizontal axis extending substantially in the intended direction of travel of the vehicle cabin to which the mirror is to be mounted from an inward or retracted position to an outward or extended position. a mount adapted to be mounted to a vehicle cabin; an extension component including a first member or portion extending from said mount and a second member operatively connected to said first member or portion for sliding movement relative thereto from a retracted position to an extended position; and a mirror component operatively connected to said second member for pivoting movement relative thereto about a generally horizontal axis extending substantially in the intended direction of travel of the vehicle cabin to which the mirror is to be mounted from an inward or retracted position to an outward or extended position.
An apparatus comprising a transmission-type polarization insensitive modulator, the apparatus comprises: an input configured to receive a continuous wave light; a first polarization splitter-rotator coupled to the input and configured to generate a first light beam (TE 120) and a second light beam (TE' 123) having a common polarization from the CW light; an upper waveguide bus coupled to the first PSR; a lower waveguide bus coupled to the first PSR; a micro ring optically coupled to the upper waveguide bus and the lower waveguide bus and configured to: modulate the first light beam (TE 120) with data to generate a first output signal (S 130); and modulate the second light beam (TE' 123) with data to generate a second output signal (S' 133); a second PSR coupled to the upper waveguide bus and the lower waveguide bus and configured to combine the first output signal (S 130) and the second output signal (S' 133) to form a modulated output signal; and an output coupled to the second PSR and configured to output the modulated output signal to an optical receiving device. an input configured to receive a continuous wave light; a first polarization splitter-rotator coupled to the input and configured to generate a first light beam (TE 120) and a second light beam (TE' 123) having a common polarization from the CW light; an upper waveguide bus coupled to the first PSR; a lower waveguide bus coupled to the first PSR; a micro ring optically coupled to the upper waveguide bus and the lower waveguide bus and configured to: modulate the first light beam (TE 120) with data to generate a first output signal (S 130); and modulate the second light beam (TE' 123) with data to generate a second output signal (S' 133); modulate the first light beam (TE 120) with data to generate a first output signal (S 130); and modulate the second light beam (TE' 123) with data to generate a second output signal (S' 133); a second PSR coupled to the upper waveguide bus and the lower waveguide bus and configured to combine the first output signal (S 130) and the second output signal (S' 133) to form a modulated output signal; and an output coupled to the second PSR and configured to output the modulated output signal to an optical receiving device.
A method of signal processing, said method comprising: obtaining a plurality of results from a correlator based on correlating a received code with a reference code, each result corresponding to one of a plurality of code phase hypotheses and one of a plurality of frequency hypotheses; for each of the plurality of the frequency hypotheses, selecting a plurality of peaks among the results for the frequency hypothesis; characterised by selectively rejecting a frequency hypothesis, said rejecting being based on a relation between energy values of peaks in the plurality of peaks for that frequency hypothesis. obtaining a plurality of results from a correlator based on correlating a received code with a reference code, each result corresponding to one of a plurality of code phase hypotheses and one of a plurality of frequency hypotheses; for each of the plurality of the frequency hypotheses, selecting a plurality of peaks among the results for the frequency hypothesis; characterised by selectively rejecting a frequency hypothesis, said rejecting being based on a relation between energy values of peaks in the plurality of peaks for that frequency hypothesis.
A compound of the formula: wherein: R 1 and R 2 are each independently selected from hydrogen, alkyl (C≤12), or substituted alkyl (C≤12); R 3 is hydrogen, alkyl (C≤12), aralkyl (C≤12), substituted alkyl (C≤12), or substituted aralkyl (C≤12); R 4 is hydrogen, alkyl (C≤12), alkoxy (C≤12), substituted alkyl (C≤12), or substituted alkoxy (C≤12); X 1 is heterocycloalkyl (C≤8) or substituted heterocycloalkyl (C≤8); and Y 1 is alkyl (C≤12), cycloalkyl (C≤12), adamantyl (C≤18), aralkyl (C≤18), acyl (C≤12), -alkanediyl (C≤8)-cycloalkyl (C≤12), or a substituted version of any of these groups; or wherein the term "substituted" refers to a group wherein one or more hydrogen atom has been independently replaced by -OH, -F, -Cl, -Br, -I, -NH 2, -NO 2, -CO 2 H, -CO 2 CH 3, -CN, -SH, -OCH 3, -OCH 2 CH 3, -C CH 3, -NHCH 3, -NHCH 2 CH 3, -N(CH 3) 2, -C NH 2, -C NHCH 3, -C N(CH 3) 2, -OC CH 3, -NHC CH 3, -S 2 OH, or -S 2 NH 2; or a pharmaceutically acceptable salt thereof. R 1 and R 2 are each independently selected from hydrogen, alkyl (C≤12), or substituted alkyl (C≤12); R 3 is hydrogen, alkyl (C≤12), aralkyl (C≤12), substituted alkyl (C≤12), or substituted aralkyl (C≤12); R 4 is hydrogen, alkyl (C≤12), alkoxy (C≤12), substituted alkyl (C≤12), or substituted alkoxy (C≤12); X 1 is heterocycloalkyl (C≤8) or substituted heterocycloalkyl (C≤8); and Y 1 is alkyl (C≤12), cycloalkyl (C≤12), adamantyl (C≤18), aralkyl (C≤18), acyl (C≤12), -alkanediyl (C≤8)-cycloalkyl (C≤12), or a substituted version of any of these groups; or wherein the term "substituted" refers to a group wherein one or more hydrogen atom has been independently replaced by -OH, -F, -Cl, -Br, -I, -NH 2, -NO 2, -CO 2 H, -CO 2 CH 3, -CN, -SH, -OCH 3, -OCH 2 CH 3, -C CH 3, -NHCH 3, -NHCH 2 CH 3, -N(CH 3) 2, -C NH 2, -C NHCH 3, -C N(CH 3) 2, -OC CH 3, -NHC CH 3, -S 2 OH, or -S 2 NH 2;
A micropump comprising: a pumping chamber (20; 120; 220; 320), between a first semiconductor substrate (7; 107; 207; 307) and a second semiconductor substrate (8; 108; 208; 308) bonded to each other; an inlet valve (21; 121; 221; 321), having an inlet shutter element (27; 127) between an inlet passage (18; 118) and the pumping chamber (20; 120; 220; 320); an outlet valve (22; 121; 221; 321), having an outlet shutter element (33; 133) between the pumping chamber (20; 120; 220; 320) and an outlet passage (19; 119); a first recess (28; 128) fluidly coupled to the pumping chamber (20; 120; 220; 320) and configured to house the inlet shutter element (27; 127) when the inlet valve (21; 121; 221; 321) is in an open configuration; a second recess (35; 135) fluidly decoupled from the pumping chamber (20; 120; 220; 320) and configured to house the outlet shutter element (33; 133) when the outlet valve (22; 121; 221; 321) is in an open configuration. a pumping chamber (20; 120; 220; 320), between a first semiconductor substrate (7; 107; 207; 307) and a second semiconductor substrate (8; 108; 208; 308) bonded to each other; an inlet valve (21; 121; 221; 321), having an inlet shutter element (27; 127) between an inlet passage (18; 118) and the pumping chamber (20; 120; 220; 320); an outlet valve (22; 121; 221; 321), having an outlet shutter element (33; 133) between the pumping chamber (20; 120; 220; 320) and an outlet passage (19; 119); a first recess (28; 128) fluidly coupled to the pumping chamber (20; 120; 220; 320) and configured to house the inlet shutter element (27; 127) when the inlet valve (21; 121; 221; 321) is in an open configuration; a second recess (35; 135) fluidly decoupled from the pumping chamber (20; 120; 220; 320) and configured to house the outlet shutter element (33; 133) when the outlet valve (22; 121; 221; 321) is in an open configuration.
An apparatus, comprising a system-on-chip, SOC, and a memory device configured to communicate with each other over a link wherein the SOC is configured to provide commands to the memory device over the link, wherein the memory device, comprises: a plurality of DRAM memory cells; and a plurality of mode registers, MR, configured to implement a partial array refresh, PAR, enable register and a PAR mask register, the PAR enable register comprising a plurality of enable bits including a partial array self-refresh, PASR, enable bit and a partial array auto-refresh, PAAR, enable bit, the PASR enable bit when set indicating that PASR is enabled, and the PAAR enable bit when set indicating that PAAR is enabled; and wherein the SOC is configured to issue a mode register write, MRW, command with a corresponding mode value to the memory device so as to set the PAAR enable bit of the PAR enable register; issue a mode register write, MRW, command with a corresponding mode value to the memory device so as to cause a mask value to be written to the PAR mask register, the mask value corresponding to a refresh skip region; and issue a REF command to the memory device; and wherein the memory device is configured to skip refreshing of the refresh skip region based on the PAR mask register when the REF command is issued by the SOC and the PAAR enable bit is set. a plurality of DRAM memory cells; and a plurality of mode registers, MR, configured to implement a partial array refresh, PAR, enable register and a PAR mask register, the PAR enable register comprising a plurality of enable bits including a partial array self-refresh, PASR, enable bit and a partial array auto-refresh, PAAR, enable bit, the PASR enable bit when set indicating that PASR is enabled, and the PAAR enable bit when set indicating that PAAR is enabled; and wherein the SOC is configured to issue a mode register write, MRW, command with a corresponding mode value to the memory device so as to set the PAAR enable bit of the PAR enable register; issue a mode register write, MRW, command with a corresponding mode value to the memory device so as to cause a mask value to be written to the PAR mask register, the mask value corresponding to a refresh skip region; and issue a REF command to the memory device; and wherein the memory device is configured to skip refreshing of the refresh skip region based on the PAR mask register when the REF command is issued by the SOC and the PAAR enable bit is set.
Method for displaying information in a vehicle interior by means of a display device of a vehicle, wherein in order to display the information on the display device extending at least in a horizontal direction by means of a user-side operating input, at least one horizontal lower region of the display device having a smaller spatial extension than the display device is determined, the position of which on the display device, at least along the horizontal direction, is predetermined on the user side by means of the operating input, wherein the at least one lower region is selectively controlled to display the information, characterised in that the region of the display device not used to display the information is controlled to depict an ambience output, wherein the vehicle interior is softly illuminated with light of lower intensity by the ambience output.
Method for producing a sensor, in particular a media-tight sensor, in particular for detecting rotational speeds, in particular for use in a motor vehicle, wherein at least one lead frame is encased in a plastic material, resulting in at least one holder connected to the lead frame, wherein at least one sensor element, in particular a magnetic sensor, is electrically connected to the lead frame, wherein furthermore the lead frame, the holder and the sensor element are at least partially surrounded with an at least largely media-resistant cover, wherein use is made of an epoxy resin cover as cover and of a transfer moulding method, wherein the lead frame is provided at least in part with an adhesive coating, wherein the adhesive coating is designed to improve adhesion between the cover and the lead frame.
A food product for livestock or pets, characterized in that it is in the form of granules and contains, as probiotic additives, yeast with a protective coating made of one or more compounds which are inert relative to said yeast, said yeast being active dry yeast commonly referred to as ADY and the coating being a mixture of stearic acid and palmitic acid.
A method for decontaminating at least one surface of a substrate of a solid material, said surface being contaminated with at least one contaminant species located on said surface and/or below said surface in the first layers of the substrate, wherein at least one cycle comprising the following successive steps is performed: a) an inorganic ferromagnetic gel consisting of a colloidal solution comprising an inorganic viscosifier, a ferromagnetic compound and a solvent is applied to said surface, and then the gel applied to the surface is moved and spread at a distance using a magnet, said inorganic viscosifier being preferably selected from metal oxides such as aluminas, metalloid oxides such as silicas, metal hydroxides, metalloid hydroxides, metal oxyhydroxides, metalloid oxyhydroxides, aluminosilicates, clays such as smectite, and mixtures thereof, said application being preferably performed by spraying, brushing or trowelling; b) the gel is maintained on the surface at least for a time sufficient for the gel to destroy and/or inactivate and/or degrade and/or absorb the contaminant species, and for the gel to dry and form a dry, solid residue containing said contaminant species on the surface; c) the dry, solid residue containing said contaminant species is moved and gathered on the surface using a magnet, and the dry, solid residue containing said contaminant species is recovered, the dry, solid residue being preferably recovered using a magnet and/or by brushing and/or suction, for example with a suction device provided with a magnet. a) an inorganic ferromagnetic gel consisting of a colloidal solution comprising an inorganic viscosifier, a ferromagnetic compound and a solvent is applied to said surface, and then the gel applied to the surface is moved and spread at a distance using a magnet, said inorganic viscosifier being preferably selected from metal oxides such as aluminas, metalloid oxides such as silicas, metal hydroxides, metalloid hydroxides, metal oxyhydroxides, metalloid oxyhydroxides, aluminosilicates, clays such as smectite, and mixtures thereof, said application being preferably performed by spraying, brushing or trowelling; said inorganic viscosifier being preferably selected from metal oxides such as aluminas, metalloid oxides such as silicas, metal hydroxides, metalloid hydroxides, metal oxyhydroxides, metalloid oxyhydroxides, aluminosilicates, clays such as smectite, and mixtures thereof, said application being preferably performed by spraying, brushing or trowelling; b) the gel is maintained on the surface at least for a time sufficient for the gel to destroy and/or inactivate and/or degrade and/or absorb the contaminant species, and for the gel to dry and form a dry, solid residue containing said contaminant species on the surface; c) the dry, solid residue containing said contaminant species is moved and gathered on the surface using a magnet, and the dry, solid residue containing said contaminant species is recovered,
A process for the preparation of Lapatinib ditosylate monohydrate of formula: comprising the following steps: a) crystallization or recrystallization of the starting material Lapatinib ditosylate anhydrous or an hydrated form thereof with a mixture of dimethylformamide and acetonitrile, wherein the volume of acetonitrile is double in comparison to the volume of dimethylformamide, to give solid Lapatinib ditosylate anhydrous of formula: having X-ray powder diffraction pattern with characteristic peaks expressed in 2-Theta values (2θ) at: 4.8, 8.7, 11.2, 18.0, 18.9, 21.0, 22.3, each peak ± 0.1; b) conversion by hydration reaction of Lapatinib ditosylate anhydrous of formula obtained in the step a) to Lapatinib ditosylate monohydrate of formula. a) crystallization or recrystallization of the starting material Lapatinib ditosylate anhydrous or an hydrated form thereof with a mixture of dimethylformamide and acetonitrile, wherein the volume of acetonitrile is double in comparison to the volume of dimethylformamide, to give solid Lapatinib ditosylate anhydrous of formula: having X-ray powder diffraction pattern with characteristic peaks expressed in 2-Theta values (2θ) at: 4.8, 8.7, 11.2, 18.0, 18.9, 21.0, 22.3, each peak ± 0.1; b) conversion by hydration reaction of Lapatinib ditosylate anhydrous of formula obtained in the step a) to Lapatinib ditosylate monohydrate of formula.