mhurhangee/patent-ind-claim-en huggingface dataset:
A battery plate loading system , the system comprising: - a battery plate separator apparatus , the apparatus comprising: o a work surface for receiving a stack of battery plates ; and, o a loading mechanism comprising an arm coupled to the work surface ; - a pallet comprising at least one surface arranged to receive a plurality of stacks of battery plates , each stack being arranged in at least a first or a second orientation; and, - a robot head arrangement configured to transfer stacks of battery plates from the pallet to the battery plate separator apparatus ; characterised in that : the arm is pivotable around an axis to move the work surface between a substantially horizontal position and a substantially vertical position; wherein the robot head arrangement comprises a sensor configured to detect the orientation of each stack on the pallet prior to the transfer of each stack to the battery plate separator apparatus ; and, wherein the pivotable arm is configured to move the work surface to the substantially horizontal position or to the substantially vertical position in response to the detected orientation of a selected stack to be transferred. - a battery plate separator apparatus , the apparatus comprising: o a work surface for receiving a stack of battery plates ; and, o a loading mechanism comprising an arm coupled to the work surface ; o a work surface for receiving a stack of battery plates ; and, o a loading mechanism comprising an arm coupled to the work surface ; - a pallet comprising at least one surface arranged to receive a plurality of stacks of battery plates , each stack being arranged in at least a first or a second orientation; and, - a robot head arrangement configured to transfer stacks of battery plates from the pallet to the battery plate separator apparatus ; the arm is pivotable around an axis to move the work surface between a substantially horizontal position and a substantially vertical position; wherein the robot head arrangement comprises a sensor configured to detect the orientation of each stack on the pallet prior to the transfer of each stack to the battery plate separator apparatus ; and, wherein the pivotable arm is configured to move the work surface to the substantially horizontal position or to the substantially vertical position in response to the detected orientation of a selected stack to be transferred.
An apparatus for detecting an object, comprising: a plurality of sense coils in a power-transfer system ; drive circuitry electrically connected to the plurality of sense coils and configured to selectively apply a signal at an operating frequency to each of the plurality of sense coils ; a detection circuit configured to: generate one or more sample values indicative of an impedance at one or more of the plurality of sense coils based on the selective application of the signal at the operating frequency to each of the plurality of sense coils by the drive circuitry; and adjust a parameter associated with a processing of the one or more sample values based on whether power transfer by the power-transfer system is active or inactive; characterized in that the parameter corresponds to a sampling rate for generating the one or more sample values. a plurality of sense coils in a power-transfer system ; drive circuitry electrically connected to the plurality of sense coils and configured to selectively apply a signal at an operating frequency to each of the plurality of sense coils ; a detection circuit configured to: generate one or more sample values indicative of an impedance at one or more of the plurality of sense coils based on the selective application of the signal at the operating frequency to each of the plurality of sense coils by the drive circuitry; and adjust a parameter associated with a processing of the one or more sample values based on whether power transfer by the power-transfer system is active or inactive; characterized in that the parameter corresponds to a sampling rate for generating the one or more sample values. generate one or more sample values indicative of an impedance at one or more of the plurality of sense coils based on the selective application of the signal at the operating frequency to each of the plurality of sense coils by the drive circuitry; and adjust a parameter associated with a processing of the one or more sample values based on whether power transfer by the power-transfer system is active or inactive; characterized in that the parameter corresponds to a sampling rate for generating the one or more sample values.
An activating rinse for treating a metal substrate comprising: a dispersion of metal phosphate particles having a D 90 particle size of no greater than 10 μm, wherein the metal phosphate comprises divalent or trivalent metals or combinations thereof; a dispersant comprising a non-ionic dispersant, wherein the non-ionic dispersant includes a non-ionic polymer comprising residues of monomers including propylene oxide, ethylene oxide, styrene, a monoacid such as (meth)acrylic acid, a diacid such as maleic acid or itaconic acid, an acid anhydride such as acrylic anhydride or maleic anhydride, or combinations thereof; and a metal sulfate salt; wherein the metal of the metal sulfate comprises nickel, cobalt, zinc, iron, copper, or combinations thereof; and wherein the D 90 particle size as determined according to the method described in the specification refers to a volume-weighted particle distribution in which 90% of the particles have a diameter smaller than the D 90 value. a dispersion of metal phosphate particles having a D 90 particle size of no greater than 10 μm, wherein the metal phosphate comprises divalent or trivalent metals or combinations thereof; a dispersant comprising a non-ionic dispersant, wherein the non-ionic dispersant includes a non-ionic polymer comprising residues of monomers including propylene oxide, ethylene oxide, styrene, a monoacid such as (meth)acrylic acid, a diacid such as maleic acid or itaconic acid, an acid anhydride such as acrylic anhydride or maleic anhydride, or combinations thereof; and a metal sulfate salt; wherein the metal of the metal sulfate comprises nickel, cobalt, zinc, iron, copper, or combinations thereof; and wherein the D 90 particle size as determined according to the method described in the specification refers to a volume-weighted particle distribution in which 90% of the particles have a diameter smaller than the D 90 value.
A light-emitting optoelectronic module comprising: a coherent light source operable to generate coherent light , the coherent light being characterized by a coherence length, a bandwidth, and a center wavelength; a diffuser , characterized by a divergence angle, the diffuser being positioned with respect to the coherent light source such that the coherent light is incident on the diffuser and the diffuser is operable to generate a diffuse emission ; and a Fresnel lens element including an array of Fresnel rings; wherein the Fresnel lens element is positioned with respect to the diffuser such that the diffuse emission is incident on the Fresnel lens element and the Fresnel lens element generates an emission wherein additionally the divergence angle is an angle between a first path-length from the diffuser to the Fresnel lens element and a second path-length from the diffuser to the Fresnel lens element, the first and second path-lengths emanating from a same point on the diffuser, the first path-length being orthogonal to the diffuser and the Fresnel lens element, and, the difference in length between the first and second path lengths is a path difference, the path difference being larger than the coherence length. a coherent light source operable to generate coherent light , the coherent light being characterized by a coherence length, a bandwidth, and a center wavelength; a diffuser , characterized by a divergence angle, the diffuser being positioned with respect to the coherent light source such that the coherent light is incident on the diffuser and the diffuser is operable to generate a diffuse emission ; and a Fresnel lens element including an array of Fresnel rings; wherein the Fresnel lens element is positioned with respect to the diffuser such that the diffuse emission is incident on the Fresnel lens element and the Fresnel lens element generates an emission wherein additionally the divergence angle is an angle between a first path-length from the diffuser to the Fresnel lens element and a second path-length from the diffuser to the Fresnel lens element, the first and second path-lengths emanating from a same point on the diffuser, the first path-length being orthogonal to the diffuser and the Fresnel lens element, and, the difference in length between the first and second path lengths is a path difference, the path difference being larger than the coherence length.
Insulator for a gas insulated device, comprising an injection molded and single-bodied insulator disc and a conductor , wherein the insulator disc comprises a center opening encompassed by an inner bead inside which the conductor is arranged and an outer bead encompassing the insulator disc , the insulator disc consists of a first material which is injection molded onto the conductor , the insulator defines a center axis (a) by its cylindrical overall shape, characterized in that at least one of the inner bead and the outer bead is strut by a plurality of ribs arranged on at least one of a first side surface (8.1) and a second side surface (8.2) of the insulator disc such that a rib structure is formed, the ribs are arranged in a radial direction with respect to the center axis (a) such that the ribs have a wave-like cross-section extending in the radial direction, and the cross-section is defined by the intersection of a plane parallel to the center axis ( a) of the insulator and passing between the inner and the outer bead with the insulator . the insulator disc comprises a center opening encompassed by an inner bead inside which the conductor is arranged and an outer bead encompassing the insulator disc , the insulator disc consists of a first material which is injection molded onto the conductor , the insulator defines a center axis (a) by its cylindrical overall shape, characterized in that at least one of the inner bead and the outer bead is strut by a plurality of ribs arranged on at least one of a first side surface (8.1) and a second side surface (8.2) of the insulator disc such that a rib structure is formed, the ribs are arranged in a radial direction with respect to the center axis (a) such that the ribs have a wave-like cross-section extending in the radial direction, and the cross-section is defined by the intersection of a plane parallel to the center axis ( a) of the insulator and passing between the inner and the outer bead with the insulator .
An antibody that specifically binds sialoadhesin/siglec-1/CD169 and antagonizes the sialoadhesin/siglec-1/CD169 receptor for use in preventing and/or treating a bone disease in a subject, in particular a disease characterized by a decreased bone mineral density and/or bone malformation.
A method of extracting propellant from a loaded propeller body , said loaded propeller body comprising an elongated structure of main axis A which is an element of revolution about said main axis A, and inside which said structure, the propellant is located, the extraction method consisting in using at least one nozzle producing a jet of liquid which erodes the propellant , the nozzle following a helical path coaxial to the main axis A during the extraction of the propellant , characterized in that the jet of liquid is a flat jet and in that the path followed by the nozzle has an axial pitch substantially equal to an axial extent along which propellant is eroded by the flat jet . said loaded propeller body comprising an elongated structure of main axis A which is an element of revolution about said main axis A, and inside which said structure, the propellant is located, the extraction method consisting in using at least one nozzle producing a jet of liquid which erodes the propellant , the nozzle following a helical path coaxial to the main axis A during the extraction of the propellant , characterized in that the jet of liquid is a flat jet and in that the path followed by the nozzle has an axial pitch substantially equal to an axial extent along which propellant is eroded by the flat jet .
A method for compensating a force acting from outside on a door leaf of a revolving door assembly , wherein the revolving door assembly comprises: - a turnstile carrying the door leaf , - an evaluation unit , and - an electrical drive , with - a stator and - a rotor , wherein the rotor can be disposed coaxially to an axis of rotation of the turnstile and can be connected to the turnstile for direct gearless driving, and the method is characterized by the steps of: - determining (S100) a preset stop position of the door leaf , - determining (S200) the force acting from outside on the door leaf in the preset stop position, and - controlling (S300) the stator with an electrical signal, which compensates the force acting from outside on the door leaf . - a turnstile carrying the door leaf , - an evaluation unit , and - an electrical drive , with - a stator and - a rotor , - a stator and - a rotor , - determining (S100) a preset stop position of the door leaf , - determining (S200) the force acting from outside on the door leaf in the preset stop position, and - controlling (S300) the stator with an electrical signal, which compensates the force acting from outside on the door leaf .
Device for determining the convective heat transfer coefficient at a convection surface , wherein a first temperature difference between the surface temperature of the convection surface and the surrounding fluid temperature and a second temperature difference between a temperature in the near region of the convection surface and the surrounding fluid temperature can be determined, wherein the near region lies so close to the convection surface that the temperature is noticeably influenced by the convection surface by convection.
A flexible display device comprising: a body ; a moving plate reciprocally moveable in a first direction in the body ; a first pulley disposed below the moving plate and coupled to the body , the first pulley being rotatable about a first rotary shaft parallel to a second direction perpendicular to the first direction; a second pulley disposed below the moving plate at a position further forward in the first direction than the first pulley , and coupled to the body , the second pulley being rotatable about a second rotary shaft parallel to the first rotary shaft ; a driving track , at least a part of the driving track being bent, and the driving track being disposed to enclose the first pulley and the second pulley and coupled to the moving plate ; and a flexible display of which a part is coupled to an outer surface of the moving plate , and of which another part is coupled to an outer surface of the driving track , characterized in that the driving track comprises: a first coupling portion forming one end of the driving track and coupled to a rear end of the moving plate in the first direction; and a second coupling portion forming the other end of the driving track and coupled to a bottom surface of the moving plate or to the first coupling portion . a moving plate reciprocally moveable in a first direction in the body ; a first pulley disposed below the moving plate and coupled to the body , the first pulley being rotatable about a first rotary shaft parallel to a second direction perpendicular to the first direction; a second pulley disposed below the moving plate at a position further forward in the first direction than the first pulley , and coupled to the body , the second pulley being rotatable about a second rotary shaft parallel to the first rotary shaft ; a driving track , at least a part of the driving track being bent, and the driving track being disposed to enclose the first pulley and the second pulley and coupled to the moving plate ; and a flexible display of which a part is coupled to an outer surface of the moving plate , and of which another part is coupled to an outer surface of the driving track , characterized in that the driving track comprises: a first coupling portion forming one end of the driving track and coupled to a rear end of the moving plate in the first direction; and a second coupling portion forming the other end of the driving track and coupled to a bottom surface of the moving plate or to the first coupling portion . a first coupling portion forming one end of the driving track and coupled to a rear end of the moving plate in the first direction; and a second coupling portion forming the other end of the driving track and coupled to a bottom surface of the moving plate or to the first coupling portion .
An organic light emitting display, OLED, device, comprising: a substrate ; a first pixel electrode , a second pixel electrode , and a third pixel electrode each overlapping the substrate ; a pixel defining layer comprising a first opening (OP1), a second opening (OP2), and a third opening (OP3) respectively partially exposing the first pixel electrode , the second pixel electrode , and the third pixel electrode ; a red emission layer , a green emission layer , and a blue emission layer respectively corresponding to the first opening (OP1), the second opening (OP2), and the third opening (OP3); and a common electrode overlapping each of the red emission layer , the green emission layer , and the blue emission layer , wherein the pixel defining layer further comprises a first uneven surface and a first flat face, wherein the first uneven surface is opposite the first flat face and is positioned between the first opening (OP1) and the second opening (OP2), and wherein the first flat face is positioned between the first pixel electrode and the second pixel electrode and is positioned between the first uneven surface and the substrate , characterised in that the pixel defining layer further comprises a second flat face and a third flat face, wherein the second flat face is opposite the third flat face and is positioned between the second pixel electrode and the third pixel electrode , and wherein the third flat face is positioned between the second opening (OP2) and the third opening (OP3) and extends from the second opening (OP2) to the third opening (OP3). a substrate ; a first pixel electrode , a second pixel electrode , and a third pixel electrode each overlapping the substrate ; a pixel defining layer comprising a first opening (OP1), a second opening (OP2), and a third opening (OP3) respectively partially exposing the first pixel electrode , the second pixel electrode , and the third pixel electrode ; a red emission layer , a green emission layer , and a blue emission layer respectively corresponding to the first opening (OP1), the second opening (OP2), and the third opening (OP3); and a common electrode overlapping each of the red emission layer , the green emission layer , and the blue emission layer , wherein the pixel defining layer further comprises a first uneven surface and a first flat face, wherein the first uneven surface is opposite the first flat face and is positioned between the first opening (OP1) and the second opening (OP2), and wherein the first flat face is positioned between the first pixel electrode and the second pixel electrode and is positioned between the first uneven surface and the substrate , characterised in that the pixel defining layer further comprises a second flat face and a third flat face, wherein the second flat face is opposite the third flat face and is positioned between the second pixel electrode and the third pixel electrode , and wherein the third flat face is positioned between the second opening (OP2) and the third opening (OP3) and extends from the second opening (OP2) to the third opening (OP3).
A method of controlling a computer system , the computer system comprising a data security system and being configured for monitoring by an operator of the computer system, the method comprising: receiving, at a controller of the data security system, a signal comprising information about the state of the monitoring by the operator, and switching, by the controller in response to determining that the computer system is not currently monitored by the operator, the data security system to a mode of operation where at least a part of data communications in and/or out of the computer system is prevented. receiving, at a controller of the data security system, a signal comprising information about the state of the monitoring by the operator, and switching, by the controller in response to determining that the computer system is not currently monitored by the operator, the data security system to a mode of operation where at least a part of data communications in and/or out of the computer system is prevented.
A landing gear arrangement comprising: a landing gear component : a cylindrical composite member formed by: a first composite layer having an outer surface and a cylindrical geometry; and a second composite layer wherein the first composite layer and second composite layer comprise the landing gear component ; a metallic load transfer member comprising an inner surface having a constant diameter, the metallic load transfer member perimetrically surrounding at least a portion of the first composite layer, wherein the constant diameter and a diameter of the outer surface are substantially equal; the second composite layer perimetrically surrounding at least a portion of the metallic load transfer member; characterized in that the metallic load transfer member comprises a metallic connecting tab extending away from the metallic load transfer member in at least one of a radial, axial, and tangential direction, and extending through the second composite layer, and in that at least a portion of the metallic connecting tab is located further radially outward than the second composite layer. a cylindrical composite member formed by: a first composite layer having an outer surface and a cylindrical geometry; and a second composite layer a first composite layer having an outer surface and a cylindrical geometry; and a second composite layer wherein the first composite layer and second composite layer comprise the landing gear component ; a metallic load transfer member comprising an inner surface having a constant diameter, the metallic load transfer member perimetrically surrounding at least a portion of the first composite layer, wherein the constant diameter and a diameter of the outer surface are substantially equal; the second composite layer perimetrically surrounding at least a portion of the metallic load transfer member; characterized in that the metallic load transfer member comprises a metallic connecting tab extending away from the metallic load transfer member in at least one of a radial, axial, and tangential direction, and extending through the second composite layer, and in that at least a portion of the metallic connecting tab is located further radially outward than the second composite layer.