mhurhangee/ep-ind-claims huggingface dataset:
A strain gauge, comprising: a substrate; a transverse sensitive grid, arranged on the substrate; and at least two non-transverse sensitive grids, both arranged on the substrate so as to be located on opposite sides of the transverse sensitive grid and both electrically connected to the transverse sensitive grid, wherein the two non-transverse sensitive grids are connected to each other by a transverse connection and share a common ground lead and a common ground interface, one end of the ground lead connected to the transverse connection at a middle thereof, the other end of the ground lead connected to the ground interface, the two non-transverse sensitive grids having equal resistances and connected to ends of two respective non-ground leads (114,124) having equal resistances, the other ends of the two non-ground leads (114,124) connected to two respective non-ground interfaces (112,122). a substrate; a transverse sensitive grid, arranged on the substrate; and at least two non-transverse sensitive grids, both arranged on the substrate so as to be located on opposite sides of the transverse sensitive grid and both electrically connected to the transverse sensitive grid, wherein the two non-transverse sensitive grids are connected to each other by a transverse connection and share a common ground lead and a common ground interface, one end of the ground lead connected to the transverse connection at a middle thereof, the other end of the ground lead connected to the ground interface, the two non-transverse sensitive grids having equal resistances and connected to ends of two respective non-ground leads (114,124) having equal resistances, the other ends of the two non-ground leads (114,124) connected to two respective non-ground interfaces (112,122).
Sodium-chalcogen cell, in particular a sodium-sulphur cell or a sodium-oxygen cell, comprising - an anode and - a cathode, where the anode comprises sodium and the cathode comprises at least one chalcogen, where the anode and the cathode are separated by at least one solid-state electrolyte which conducts sodium ions and does not conduct electrons and where the cathode comprises at least one solid-state electrolyte (4a, 4b) which conducts sodium ions and electrons, where the cathode comprises at least one conduction element composed of a solid-state electrolyte which conducts sodium ions and electrons, characterized in that structures composed of a solid-state electrolyte which conducts sodium ions and electrons are formed on the conduction element(s). - an anode and - a cathode,
An apparatus for separating or sorting particles within a fluid sample including two or more species of particles, the apparatus comprising: - a substrate, preferably a piezoelectric substrate, the substrate having a substrate surface; - a surface acoustic wave generator (14, 16) for generating a SAW within a SAW region of the substrate surface, so that the SAW generates at least one pressure node (20, 22, 24, 26, 28) on the surfaces of the substrate aligned along a SAW direction of the SAW, and - a channel crossing the SAW region, wherein - the channel is configured to receive the fluid sample and the channel is arranged so that the fluid sample has a flow direction at an oblique angle (a) to the SAW direction, and - the channel comprises two output channels (42, 44) to collect two sorted or separated output particle streams with distinct particular species formed in the SAW region by the at least one pressure node (20, 22, 24, 26, 28) obliquely angled with respect to the flow direction. - a substrate, preferably a piezoelectric substrate, the substrate having a substrate surface; - a surface acoustic wave generator (14, 16) for generating a SAW within a SAW region of the substrate surface, so that the SAW generates at least one pressure node (20, 22, 24, 26, 28) on the surfaces of the substrate aligned along a SAW direction of the SAW, and - a channel crossing the SAW region, wherein - the channel is configured to receive the fluid sample and the channel is arranged so that the fluid sample has a flow direction at an oblique angle (a) to the SAW direction, and - the channel comprises two output channels (42, 44) to collect two sorted or separated output particle streams with distinct particular species formed in the SAW region by the at least one pressure node (20, 22, 24, 26, 28) obliquely angled with respect to the flow direction.
A process for the preparation of a 4-amino-5-fluoro-3-chloro-6-(substituted)-picolinate of the Formula I wherein R 1 represents C 1 -C 4 alkyl, cyclopropyl, C 2 -C 4 alkenyl or phenyl substituted with from 1 to 4 substituents independently selected from halogen, C 1 -C 4 alkyl, C 1 -C 4 haloalkyl, C 1 -C 4 alkoxy or C 1 -C 4 haloalkoxy, and R 2 represents C 1 -C 4 alkyl, which comprises halogenating and deprotecting an alkyl 4-amino-5-fluoro-6-(substituted)-picolinate of Formula E wherein R 1 and R 2 are as previously defined, with 1,3-dichloro-5,5-dimethylimidazolidine-2,4-dione (Formula F) in the presence of a mineral acid in a polar solvent to produce the 4-amino-5-fluoro-3-chloro-6-(substituted)picolinate of the Formula I. R 1 represents C 1 -C 4 alkyl, cyclopropyl, C 2 -C 4 alkenyl or phenyl substituted with from 1 to 4 substituents independently selected from halogen, C 1 -C 4 alkyl, C 1 -C 4 haloalkyl, C 1 -C 4 alkoxy or C 1 -C 4 haloalkoxy, and R 2 represents C 1 -C 4 alkyl,
An intrusion detection system, comprising: a target (103, 201); a monitor (101, 200); and a communication link (105, 214) comprising a controlled access memory structure logically positioned between the target and the monitor using point-to-point interconnects; the monitor arranged to process messages (211, 213) received from the target (103, 201) over the communication link (105, 214), the monitor arranged to process a message from the target indicating that the target has entered a controlled mode of operation, wherein the target has exclusive access to the communication link, such that no other device can communicate with the monitor, when the target is executing in the controlled mode of operation, wherein the monitor (101, 200) is arranged to compare the messages (211, 213) received from the controlled access memory structure to information of an expected behaviour of the target to detect a deviation from the expected behaviour, the deviation being indicative of an intrusion. a target (103, 201); a monitor (101, 200); and a communication link (105, 214) comprising a controlled access memory structure logically positioned between the target and the monitor using point-to-point interconnects; the monitor arranged to process messages (211, 213) received from the target (103, 201) over the communication link (105, 214), the monitor arranged to process a message from the target indicating that the target has entered a controlled mode of operation, wherein the target has exclusive access to the communication link, such that no other device can communicate with the monitor, when the target is executing in the controlled mode of operation, wherein the monitor (101, 200) is arranged to compare the messages (211, 213) received from the controlled access memory structure to information of an expected behaviour of the target to detect a deviation from the expected behaviour, the deviation being indicative of an intrusion.
A method of fabricating a phase plate for use in a transmission electron microscope, the phase plate consisting of a thin film having through-holes and the thin film being suitable for letting an electron beam pass through the thin film, so that the phase of the electron beam passing through the thin film is shifted, the method comprising the steps of: forming a first layer on a substrate; patterning the first layer to form through-holes extending through the first layer; then etching a surface of the substrate opposite to a surface on which the first layer is formed to form an opening which is in communication with the through-holes and which exposes the first layer; and forming a second layer on the first layer. forming a first layer on a substrate; patterning the first layer to form through-holes extending through the first layer; then etching a surface of the substrate opposite to a surface on which the first layer is formed to form an opening which is in communication with the through-holes and which exposes the first layer; and forming a second layer on the first layer.
A method of manufacturing a trim component from carbon fibre, the trim component comprising an A surface and an inwardly facing B surface to the rear of the A surface, the method comprising the steps of: producing a male component with a control surface, the control surface being arranged to correspond to the B surface of the trim component; consecutively placing individual sheets of a plurality of unidirectional carbon fibre sheets over the control surface to define a carbon fibre layer having a thickness greater than the maximum thickness of the trim component, wherein each sheet of the plurality of unidirectional carbon fibre sheets is rotated with respect to a preceding sheet such that the directions of the respective fibres of adjacent sheets misalign; curing the carbon fibre layer on the male component; removing the carbon fibre layer from the male component; securing the carbon fibre layer to a machining carriage with an outer surface corresponding to the B surface of the trim component; and, cutting the outer surface of the carbon fibre layer to expose the A surface of the trim component using a cutting tool travelling along a machining path, the cutting tool being arranged to cut the outer surface at a cutting angle in the range of 2 to 45 degrees with respect to the plane of the sheets at the location of the carbon fibre layer being cut. producing a male component with a control surface, the control surface being arranged to correspond to the B surface of the trim component; consecutively placing individual sheets of a plurality of unidirectional carbon fibre sheets over the control surface to define a carbon fibre layer having a thickness greater than the maximum thickness of the trim component, wherein each sheet of the plurality of unidirectional carbon fibre sheets is rotated with respect to a preceding sheet such that the directions of the respective fibres of adjacent sheets misalign; curing the carbon fibre layer on the male component; removing the carbon fibre layer from the male component; securing the carbon fibre layer to a machining carriage with an outer surface corresponding to the B surface of the trim component; and, cutting the outer surface of the carbon fibre layer to expose the A surface of the trim component using a cutting tool travelling along a machining path, the cutting tool being arranged to cut the outer surface at a cutting angle in the range of 2 to 45 degrees with respect to the plane of the sheets at the location of the carbon fibre layer being cut.
Method in a support module for supporting synchronization of a base station in a cellular communication network, the method being characterized by comprising: - obtaining high-accuracy time information from a reference source, wherein the reference source is a satellite based positioning system, and - providing said time information to the base station by use of long wave signaling, thus enabling the base station to synchronize. - obtaining high-accuracy time information from a reference source, wherein the reference source is a satellite based positioning system, and - providing said time information to the base station by use of long wave signaling, thus enabling the base station to synchronize.
Method for multi-stage flotation in series for the removal of hydrophobic particles from a flow of materials to be treated, comprising a step of introducing, into a stage of an enclosure of parallelepipedal shape, a layer of materials to be treated coming either from an upper stage (3, 3A, 3B, 3C) or directly from an inlet of the enclosure, the method comprising a step of aeration carried out in a mixing zone of said stage, in which the air extracted from the lower stages is mixed, diffused and dispersed in the layer of materials to be treated, then escapes to the upper stage or to a foam discharge zone, and, after the aeration step: - a deaeration step in which there is no longer any introduction of air into the layer of materials to be treated before its exit from the stage, and which allows the discharge of the dispersed air to the upper stages (3, 3A, 3B, 3C) or, in the case of the uppermost stage, to a foam discharge zone, as well as - a step of recovering the deaerated material through an inlet opening of an immediately lower stage to a mixing zone of the immediately lower stage or through an outlet opening of the enclosure, characterized in that the deaeration step is implemented in a deaeration zone of the stage, said deaeration zone being located above and in the axis of the mixing zone of the immediately lower stage. - a deaeration step in which there is no longer any introduction of air into the layer of materials to be treated before its exit from the stage, and which allows the discharge of the dispersed air to the upper stages (3, 3A, 3B, 3C) or, in the case of the uppermost stage, to a foam discharge zone, as well as - a step of recovering the deaerated material through an inlet opening of an immediately lower stage to a mixing zone of the immediately lower stage or through an outlet opening of the enclosure,
A kit for preparing a retrograde transport viral vector comprising: a packaging plasmid containing the gag gene and the pol gene of HIV-1; a packaging plasmid containing an accessory gene of HIV-1; a transfer plasmid containing a target gene (a transgene); and an envelope plasmid containing, as an envelope gene, a gene encoding a fused polypeptide comprising a fused extracellular domain consisting of the N-terminal region of an extracellular domain of rabies virus glycoprotein (RV-G) and the C-terminal region of an extracellular domain of vesicular stomatitis virus glycoprotein (VSV-G), a transmembrane domain of VSV-G, and an intracellular domain of VSV-G, and wherein the fused polypeptide has the amino acid sequence shown in SEQ ID NO 2. a packaging plasmid containing the gag gene and the pol gene of HIV-1; a packaging plasmid containing an accessory gene of HIV-1; a transfer plasmid containing a target gene (a transgene); and an envelope plasmid containing, as an envelope gene, a gene encoding a fused polypeptide comprising a fused extracellular domain consisting of the N-terminal region of an extracellular domain of rabies virus glycoprotein (RV-G) and the C-terminal region of an extracellular domain of vesicular stomatitis virus glycoprotein (VSV-G), a transmembrane domain of VSV-G, and an intracellular domain of VSV-G, and wherein the fused polypeptide has the amino acid sequence shown in SEQ ID NO 2.
A method of stitching frames to assist driver of a vehicle, the method comprising: receiving, by a driver assistance system, a plurality of frames from a plurality of image sensors configured in a vehicle; identifying, by the driver assistance system, one or more objects and corresponding pixel coordinates in the plurality of frames; determining, by the driver assistance system, one or more sets of mapped objects based on correspondence between the one or more objects, in each of the plurality of frames, wherein the correspondence is determined based on the pixel coordinates of the one or more objects; determining, by the driver assistance system, a visibility status for each object in each set of the mapped objects, based on pre-defined visibility conditions; identifying, by the driver assistance system, a priority index for each object in each set of the mapped objects, based on the visibility status and corresponding object parameters, wherein the object parameters comprise object size, relative object ratio, object type and proximity of the one or more objects to the plurality of image sensors; and generating, by the driver assistance system, a resultant image by stitching the plurality of frames, considering an object from each set of the mapped objects having the highest priority index such that it overlaps lower priority objects, wherein the resultant image is displayed to assist the driver of the vehicle. receiving, by a driver assistance system, a plurality of frames from a plurality of image sensors configured in a vehicle; identifying, by the driver assistance system, one or more objects and corresponding pixel coordinates in the plurality of frames; determining, by the driver assistance system, one or more sets of mapped objects based on correspondence between the one or more objects, in each of the plurality of frames, wherein the correspondence is determined based on the pixel coordinates of the one or more objects; determining, by the driver assistance system, a visibility status for each object in each set of the mapped objects, based on pre-defined visibility conditions; identifying, by the driver assistance system, a priority index for each object in each set of the mapped objects, based on the visibility status and corresponding object parameters, wherein the object parameters comprise object size, relative object ratio, object type and proximity of the one or more objects to the plurality of image sensors; and generating, by the driver assistance system, a resultant image by stitching the plurality of frames, considering an object from each set of the mapped objects having the highest priority index such that it overlaps lower priority objects, wherein the resultant image is displayed to assist the driver of the vehicle.
A component storage stick replacement device comprising: a frame arranged to house a plurality of tiers of sticks containing components and having an empty stick elimination space located at a lower portion of the frame; a holding unit (10, 11) arranged to hold the respective sticks in a plurality of tiers within the frame; characterized in that a lifting-and-lowering unit is arranged to move the respective sticks in the plurality of tiers down one tier together with the holding unit and to move the holding unit up one tier separately from the respective sticks to return the holding unit to an original position; a drive unit (12, 13) is arranged to operate the holding unit to hold and release the respective sticks; and an another holding unit is arranged to hold the sticks other than the stick at the lowermost tier (2 1) at least during the release. a frame arranged to house a plurality of tiers of sticks containing components and having an empty stick elimination space located at a lower portion of the frame; a holding unit (10, 11) arranged to hold the respective sticks in a plurality of tiers within the frame; characterized in that a lifting-and-lowering unit is arranged to move the respective sticks in the plurality of tiers down one tier together with the holding unit and to move the holding unit up one tier separately from the respective sticks to return the holding unit to an original position; a drive unit (12, 13) is arranged to operate the holding unit to hold and release the respective sticks; and an another holding unit is arranged to hold the sticks other than the stick at the lowermost tier (2 1) at least during the release.
Radiometric detector for detecting a measurement variable, comprising - a scintillator for generating light pulses, and - a plurality of optoelectronic sensors (3a, 3b, 3c), wherein a respective optoelectronic sensor (3a, 3b, 3c) is embodied to convert the light pulses generated by the scintillator into an associated sensor signal (Sa, Sb, Sc), characterized by - an evaluation unit, comprising - an assessment part, wherein the assessment part is embodied to assess a respective sensor signal (Sa, Sb, Sc) as an error-free (Sa, Sb) or erroneous sensor signal (Sc), and - a summation part, wherein the summation part is embodied to form a summed sensor signal (Sum) only from the error-free sensor signals (Sa, Sb) for the purposes of obtaining a measurement variable signal for the measurement variable. - a scintillator for generating light pulses, and - a plurality of optoelectronic sensors (3a, 3b, 3c), wherein a respective optoelectronic sensor (3a, 3b, 3c) is embodied to convert the light pulses generated by the scintillator into an associated sensor signal (Sa, Sb, Sc), characterized by - an evaluation unit, comprising - an assessment part, wherein the assessment part is embodied to assess a respective sensor signal (Sa, Sb, Sc) as an error-free (Sa, Sb) or erroneous sensor signal (Sc), and - a summation part, wherein the summation part is embodied to form a summed sensor signal (Sum) only from the error-free sensor signals (Sa, Sb) for the purposes of obtaining a measurement variable signal for the measurement variable. - an assessment part, wherein the assessment part is embodied to assess a respective sensor signal (Sa, Sb, Sc) as an error-free (Sa, Sb) or erroneous sensor signal (Sc), and - a summation part, wherein the summation part is embodied to form a summed sensor signal (Sum) only from the error-free sensor signals (Sa, Sb) for the purposes of obtaining a measurement variable signal for the measurement variable.
A printer comprising: a housing in which a sheet is stored in a rolled shape; a head by which an image is printed on the sheet; a cover for an opening of the housing through which the sheet is set; a flapper configured to pivot around an axis at a first end of the flapper, the axis being rotatably supported along a rear surface of the cover, the flapper including: a surface extending from the first end to a second end of the flapper and biased to press the stored sheet against the housing, and a protrusion at the first end of the flapper that rotates around the axis as the flapper pivots; a sensor; and a controller configured to issue a signal when the protrusion is rotated around the axis to move into a detection range of the sensor; wherein the surface of the flapper is configured to press the stored sheet in a direction away from the cover. a housing in which a sheet is stored in a rolled shape; a head by which an image is printed on the sheet; a cover for an opening of the housing through which the sheet is set; a flapper configured to pivot around an axis at a first end of the flapper, the axis being rotatably supported along a rear surface of the cover, the flapper including: a surface extending from the first end to a second end of the flapper and biased to press the stored sheet against the housing, and a protrusion at the first end of the flapper that rotates around the axis as the flapper pivots; a sensor; and a controller configured to issue a signal when the protrusion is rotated around the axis to move into a detection range of the sensor; wherein the surface of the flapper is configured to press the stored sheet in a direction away from the cover. a surface extending from the first end to a second end of the flapper and biased to press the stored sheet against the housing, and a protrusion at the first end of the flapper that rotates around the axis as the flapper pivots; a sensor; and a controller configured to issue a signal when the protrusion is rotated around the axis to move into a detection range of the sensor; wherein the surface of the flapper is configured to press the stored sheet in a direction away from the cover.