mhurhangee/ep-ind-claims huggingface dataset:
A package comprising: a) a first substrate having a first surface with a first identification portion; and b) a first serial number attached to the package, the serial number being based on at least one first surface feature in the first identification portion, the first serial number being attached as a barcode; c) a plurality of sub-packages (640A-E) packed inside the package, each sub-package (640A-E) including a second surface with a respective second identification portion (644A-E), d) wherein the first serial number attached to the package is not only based on the surface features of the identifying portion of the package but also on the second surface features of each of the respective second identification portions (644A-E) of the plurality of sub-packages (640A-E) packed into the package. a) a first substrate having a first surface with a first identification portion; and b) a first serial number attached to the package, the serial number being based on at least one first surface feature in the first identification portion, the first serial number being attached as a barcode; c) a plurality of sub-packages (640A-E) packed inside the package, each sub-package (640A-E) including a second surface with a respective second identification portion (644A-E), d) wherein the first serial number attached to the package is not only based on the surface features of the identifying portion of the package but also on the second surface features of each of the respective second identification portions (644A-E) of the plurality of sub-packages (640A-E) packed into the package.
A method, comprising: receiving, by a device, one or more images that depict one or more encoded decals positioned on a surface that is a body of a vehicle; processing, by the device, the one or more images; identifying, by the device and based on processing the one or more images, one or more characteristics of the one or more encoded decals; obtaining, by the device and based on processing the image, decal information, the decal information indicating a curvature of the surface; determining, by the device and based on the one or more characteristics of the one or more encoded decals and the decal information, positioning information to be used to position a movable object relative to the surface, the movable object being a loading bridge; determining, by the device, one or more control signals based on the positioning information; and providing, by the device, the one or more control signals to one or more actuators to automatically position the movable object relative to the surface, where the one or more characteristics of the one or more encoded decals include at least one of: a position of a first encoded decal, of the one or more encoded decals, relative to a position of a second encoded decal of the one or more encoded decals, and/or a pattern formed by multiple encoded decals included in the one or more encoded decals. receiving, by a device, one or more images that depict one or more encoded decals positioned on a surface that is a body of a vehicle; processing, by the device, the one or more images; identifying, by the device and based on processing the one or more images, one or more characteristics of the one or more encoded decals; obtaining, by the device and based on processing the image, decal information, the decal information indicating a curvature of the surface; determining, by the device and based on the one or more characteristics of the one or more encoded decals and the decal information, positioning information to be used to position a movable object relative to the surface, the movable object being a loading bridge; determining, by the device, one or more control signals based on the positioning information; and providing, by the device, the one or more control signals to one or more actuators to automatically position the movable object relative to the surface, where the one or more characteristics of the one or more encoded decals include at least one of: a position of a first encoded decal, of the one or more encoded decals, relative to a position of a second encoded decal of the one or more encoded decals, and/or a pattern formed by multiple encoded decals included in the one or more encoded decals. a position of a first encoded decal, of the one or more encoded decals, relative to a position of a second encoded decal of the one or more encoded decals, and/or a pattern formed by multiple encoded decals included in the one or more encoded decals.
A combination weighing device comprising: a conveyance unit configured to convey an article; a plurality of first hoppers each configured to receive the article conveyed by the conveyance unit, temporarily hold the received article, and then discharge the article downstream; a plurality of second hoppers detachably provided on a downstream side of the plurality of first hoppers, and each configured to receive the article discharged from corresponding one of the plurality of first hoppers, temporarily hold the received article, and then discharge the article downstream; a weighing unit configured to weigh the article held in each of the plurality of second hoppers, and obtain a weighing value corresponding to mass of the article; and a control unit configured to perform combination calculation to select such a combination of weighing values a total value of which becomes a target weighing value, and discharge the article from the second hopper corresponding to the combination, characterized in that the control unit is configured to perform the combination calculation based on the weighing value corresponding to the mass of the article held in each of the plurality of second hoppers, and in a state in which a part of the second hoppers has been removed from the plurality of second hoppers, the control unit is configured to continue the combination calculation based on the weighing value corresponding to the mass of the article held in each of the plurality of second hoppers other than the part of the second hoppers. a conveyance unit configured to convey an article; a plurality of first hoppers each configured to receive the article conveyed by the conveyance unit, temporarily hold the received article, and then discharge the article downstream; a plurality of second hoppers detachably provided on a downstream side of the plurality of first hoppers, and each configured to receive the article discharged from corresponding one of the plurality of first hoppers, temporarily hold the received article, and then discharge the article downstream; a weighing unit configured to weigh the article held in each of the plurality of second hoppers, and obtain a weighing value corresponding to mass of the article; and a control unit configured to perform combination calculation to select such a combination of weighing values a total value of which becomes a target weighing value, and discharge the article from the second hopper corresponding to the combination, characterized in that the control unit is configured to perform the combination calculation based on the weighing value corresponding to the mass of the article held in each of the plurality of second hoppers, and in a state in which a part of the second hoppers has been removed from the plurality of second hoppers, the control unit is configured to continue the combination calculation based on the weighing value corresponding to the mass of the article held in each of the plurality of second hoppers other than the part of the second hoppers.
A method of manufacturing a MEMS double-layer suspension microstructure, comprising: providing a substrate; forming a first sacrificial layer on the substrate; patterning the first sacrificial layer; depositing a first dielectric layer on the first sacrificial layer; patterning the first dielectric layer to manufacture a first film body together with a cantilever beam connecting the substrate and the first film body; forming a second sacrificial layer on the first film body and the cantilever beam; patterning the second sacrificial layer located on the first film body to manufacture a recessed portion configured to form a support structure, a bottom of the recessed portion exposing the first film body; depositing a second dielectric layer on the second sacrificial layer; patterning the second dielectric layer to manufacture a second film body and the support structure, the support structure connecting the first film body and the second film body; and removing the sacrificial layers (200, 400) to obtain a MEMS double-layer suspension microstructure wherein the second film body and the support structure cover the first film body; wherein both the first film body and the second film body are film-like absorbing layers that can be employed to absorb infrared radiation; wherein a number of the cantilever beam is two, the two cantilevers are located on opposite sides of the first film body; wherein a projection area of the second film body on a surface of the substrate is larger than a projection area of the first film body on the substrate. providing a substrate; forming a first sacrificial layer on the substrate; patterning the first sacrificial layer; depositing a first dielectric layer on the first sacrificial layer; patterning the first dielectric layer to manufacture a first film body together with a cantilever beam connecting the substrate and the first film body; forming a second sacrificial layer on the first film body and the cantilever beam; patterning the second sacrificial layer located on the first film body to manufacture a recessed portion configured to form a support structure, a bottom of the recessed portion exposing the first film body; depositing a second dielectric layer on the second sacrificial layer; patterning the second dielectric layer to manufacture a second film body and the support structure, the support structure connecting the first film body and the second film body; and removing the sacrificial layers (200, 400) to obtain a MEMS double-layer suspension microstructure wherein the second film body and the support structure cover the first film body; wherein both the first film body and the second film body are film-like absorbing layers that can be employed to absorb infrared radiation; wherein a number of the cantilever beam is two, the two cantilevers are located on opposite sides of the first film body; wherein a projection area of the second film body on a surface of the substrate is larger than a projection area of the first film body on the substrate.
A method of reducing nucleic acid contamination on a surface comprising: contacting a surface contaminated with a nucleic acid with a composition comprising an amidated pectin, characterized in that the amidated pectin comprises one or more monomeric units represented by Formula: its tautomers, isomers, or salts, wherein: n is 0, 1, 2, or 3; R 1 is H or C 1 -C 3 alkyl; X, at each occurrence, is independently C 2 -C 4 alkylene or C 4 -C 6 heteroalkylene; Y is a C 2 -C 3 alkylene or C 4 -C 6 heteroalkylene; and R 2 and R 3 are independently H or C 1 -C 3 alkyl, and/or wherein the nucleic acid is a product of nucleic acid amplification reaction, optionally wherein the amplification reaction is a polymerase chain reaction. its tautomers, isomers, or salts, wherein: n is 0, 1, 2, or 3; R 1 is H or C 1 -C 3 alkyl; X, at each occurrence, is independently C 2 -C 4 alkylene or C 4 -C 6 heteroalkylene; Y is a C 2 -C 3 alkylene or C 4 -C 6 heteroalkylene; and R 2 and R 3 are independently H or C 1 -C 3 alkyl, and/or wherein the nucleic acid is a product of nucleic acid amplification reaction, optionally wherein the amplification reaction is a polymerase chain reaction. n is 0, 1, 2, or 3; R 1 is H or C 1 -C 3 alkyl; X, at each occurrence, is independently C 2 -C 4 alkylene or C 4 -C 6 heteroalkylene; Y is a C 2 -C 3 alkylene or C 4 -C 6 heteroalkylene; and R 2 and R 3 are independently H or C 1 -C 3 alkyl, and/or wherein the nucleic acid is a product of nucleic acid amplification reaction, optionally wherein the amplification reaction is a polymerase chain reaction.
A solid electrolyte, comprising: a particle having a first portion that is a lithium lanthanum titanium oxide (LLTO), and a second portion that covers a surface of the first portion and is a lithium lanthanum titanium oxide obtained by a sulfurization process in which sulfur partly substitutes oxygen ions (LLTOS) and includes a layer of LiO or hydrate on at least a surface of the second portion.
A crystallization column for a gas-phase reaction, which comprises an upper head with a gas outlet, a tower body and a lower head with a gas inlet and a material outlet, the tower body comprises a crystallization section; wherein multiple layers of trays are sequentially separated up and down are arranged in the crystallization section and are arranged on two sides of the central axis of the tower body and are arranged right and left in a staggered way, wherein the tray comprises a tray plate extending from the inner wall of the tower body and a plurality of lower crystallization members which are arranged on the lower surface of the tray plate at intervals with each other, wherein the lower crystallization member is an elastic or flexible member with a top end fixedly connected to the lower surface of the tray plate; the elastic or flexible member may bend, so that two adjacent lower crystallization members may swing and collide and wherein one end of the tray plate is connected with the inner wall of the tower body, while the other end transversely extends, and a gas circulation gap is formed between the extension end and the inner wall on the opposite side of the tower body, wherein no perforated holes are present in the tray plate.
A control device for an electric vehicle, the electric vehicle including a motor that is configured to generate a driving torque and a regenerative torque, the control device comprising: - a start determining means configured to determine whether an initial start operation of a vehicle has been performed by a driver, the initial start operation being not performed with an accelerator operation; - a disturbance torque estimating means configured to calculate a disturbance torque estimated value necessary for maintaining a vehicle stop state corresponding to a disturbance acting on the vehicle; - a torque control means configured to perform a control such that the driving torque of the motor converges to the disturbance torque estimated value when the vehicle is determined to be just before stop of the vehicle during running or determined to have undergone the initial start operation; and - a responsiveness control means configured to control a responsiveness of the driving torque to the disturbance acting on the vehicle, wherein the responsiveness control means is configured to increase, when the initial start operation is determined to have been performed, the responsiveness of the driving torque of the motor compared with a responsiveness of the driving torque just before the stop of the vehicle. - a start determining means configured to determine whether an initial start operation of a vehicle has been performed by a driver, the initial start operation being not performed with an accelerator operation; - a disturbance torque estimating means configured to calculate a disturbance torque estimated value necessary for maintaining a vehicle stop state corresponding to a disturbance acting on the vehicle; - a torque control means configured to perform a control such that the driving torque of the motor converges to the disturbance torque estimated value when the vehicle is determined to be just before stop of the vehicle during running or determined to have undergone the initial start operation; and - a responsiveness control means configured to control a responsiveness of the driving torque to the disturbance acting on the vehicle,
A method for decoding multiple touches and forces thereof on a touch sensing surface, wherein said touch sensing surface comprises a plurality of deformable spacers arranged between a flexible electrically conductive cover and a first plurality of electrodes, wherein the plurality of deformable spacers maintains a distance between the flexible electrically conductive cover and the first plurality of electrodes, said method comprising the steps of: scanning a plurality of channels aligned on an axis for determining self capacitance values of each of the plurality of channels, wherein each channel is formed by one of the first plurality of electrodes; comparing the self capacitance values to determine which one of the channels has a local maximum self capacitance value; scanning a plurality of nodes of at least one channel having a determined local maximum self capacitance value for determining mutual values of the nodes; comparing the mutual values to determine which one of the nodes has the largest mutual capacitance value, wherein the node having the largest mutual capacitance value on the local maximum self capacitance value channel is a potential touch location; and determining a force at the potential touch location from a change in the mutual capacitance values of the node at the potential touch location during no touch and during a touch thereto. scanning a plurality of channels aligned on an axis for determining self capacitance values of each of the plurality of channels, wherein each channel is formed by one of the first plurality of electrodes; comparing the self capacitance values to determine which one of the channels has a local maximum self capacitance value; scanning a plurality of nodes of at least one channel having a determined local maximum self capacitance value for determining mutual values of the nodes; comparing the mutual values to determine which one of the nodes has the largest mutual capacitance value, wherein the node having the largest mutual capacitance value on the local maximum self capacitance value channel is a potential touch location; and determining a force at the potential touch location from a change in the mutual capacitance values of the node at the potential touch location during no touch and during a touch thereto.
A joint tape for being disposed as a seal in a joint formed between two adjacent surface coverings, the joint tape having a joint tape profile comprising a contact side for coming into contact with a first joint flank formed by the first surface covering and an opposite contact side for coming into contact with an opposite second joint flank formed by the second surface covering, the length of the contact side being limited by a profile projection which serves to from a contact edge for defined positioning of the joint tape on the first joint flank, and a profile protrusion which protrudes beyond the first surface covering being formed above the contact edge, the profile protrusion having a profile ramp which rises from the profile projection on the contact side toward the opposite contact side, characterized in that the opposite contact side extends across the entire height of the joint tape and is straight so as to form an installation flank against which the second surface covering can be installed, thus forming the second joint flank.
A dog collar and lead combination having a collar and a lead stored in a housing with a coiling and uncoiling mechanism, wherein the lead in the housing can be unwound against a spring force and an outer end of the lead has a handle, wherein the collar has two free ends (11, 12), wherein at the first end there is provided the lead and at the second end there is provided an eye through which the lead is passed, wherein the housing for the lead is provided at the first end, characterised in that the two ends (11, 12) of the collar have reciprocal support elements when their end faces approach one another.
A method comprising: A) providing and directing light waves toward a moving substrate comprising a coating; B) linearly polarizing the light waves; C) converting the linearly polarized light waves to circularly polarized light waves; D) analyzing elliptically polarized light waves reflected by the moving substrate; E) capturing analyzed light waves; F) generating light wave data based on the captured light waves; G) determining a thickness of the coating based on the light wave data H) determining validity of the light wave data; characterised in that: the light wave data is not valid if: a disturbance in the movement of the substrate is detected and if the light wave data is determined not to be valid: system components are adjusted to compensate for the detected disturbances; and the method steps A-H are repeated until the light wave data is determined valid. A) providing and directing light waves toward a moving substrate comprising a coating; B) linearly polarizing the light waves; C) converting the linearly polarized light waves to circularly polarized light waves; D) analyzing elliptically polarized light waves reflected by the moving substrate; E) capturing analyzed light waves; F) generating light wave data based on the captured light waves; G) determining a thickness of the coating based on the light wave data H) determining validity of the light wave data; a disturbance in the movement of the substrate is detected and if the light wave data is determined not to be valid: system components are adjusted to compensate for the detected disturbances; and the method steps A-H are repeated until the light wave data is determined valid. system components are adjusted to compensate for the detected disturbances; and the method steps A-H are repeated until the light wave data is determined valid.
Clip for fastening an object that is provided with a fastening aperture to a stud projecting from a support part, having a hollow body that extends along an axis and that has a cavity and has, at a first axial end, an opening for insertion of the stud and has, in the cavity, elastic retaining means by which the stud can be secured in the cavity, wherein radially elastic fingers are arranged on the hollow body, the fingers project in the axial direction from the first end of the hollow body and are intended to support the clip in the fastening aperture of the object, characterized in that axially extending centering ribs are arranged in the cavity and attached to the hollow body inside the cavity, and their ends facing the opening each form one of the elastic fingers, the ends of which protrude out of the opening,