mhurhangee/ep-ind-claims huggingface dataset:
A system, including a touch pen (102, 202) that interfaces with a touch device, the touch pen (102, 202) comprising: a first antenna configured to receive communication signals from the touch device; a second antenna electrically configured to receive communication signals from the touch device; and a processing circuit, electrically coupled to the first antenna and to the second antenna, that is configured to: determine an orientation of the touch pen (102, 202) with respect to the touch device; determine a distance between the touch device and the touch pen (102, 202) based at least in part on the orientation and a first communication signal from the touch device received by the first antenna and by the second antenna; and generate an activation command configured to cause the touch device to perform an inking operation based at least in part on the distance being determined to be zero or approximately zero, wherein at least one of the first antenna or the second antenna is configured to transmit the activation command to the touch device. a first antenna configured to receive communication signals from the touch device; a second antenna electrically configured to receive communication signals from the touch device; and a processing circuit, electrically coupled to the first antenna and to the second antenna, that is configured to: determine an orientation of the touch pen (102, 202) with respect to the touch device; determine a distance between the touch device and the touch pen (102, 202) based at least in part on the orientation and a first communication signal from the touch device received by the first antenna and by the second antenna; and generate an activation command configured to cause the touch device to perform an inking operation based at least in part on the distance being determined to be zero or approximately zero, wherein at least one of the first antenna or the second antenna is configured to transmit the activation command to the touch device. determine an orientation of the touch pen (102, 202) with respect to the touch device; determine a distance between the touch device and the touch pen (102, 202) based at least in part on the orientation and a first communication signal from the touch device received by the first antenna and by the second antenna; and generate an activation command configured to cause the touch device to perform an inking operation based at least in part on the distance being determined to be zero or approximately zero, wherein at least one of the first antenna or the second antenna is configured to transmit the activation command to the touch device.
Device for managing multiple accesses to a secure module of a system on chip of an apparatus for said secure module to be able of acting as several virtual secure elements respectively for several image owners, an image being a structured and encrypted representation of binary information stored in the memory of a secure element and embedding means for decrypting encapsulated data, managing rights and checking integrity of loaded decrypted data, characterized in that it comprises a) a stream ciphering means (13 j) arranged for computing on the fly and in a single pass an integrity check for data to be transferred between said secure module and a non secure module of said system on chip with a seed and an encryption key, the non secure module storing a group of images belonging to different image owners and associated respectively to different sets of requirements, and for encrypting/decrypting on the fly and in said single pass said data with said encryption key, and b) a control means (11 j) for providing said encryption key and said seed to said stream ciphering means (13 j) and for requesting data transfer and retrieving status from said secure and non secure modules for allowing said transfer of encrypted/decrypted data between said secure and non secure modules. a) a stream ciphering means (13 j) arranged for computing on the fly and in a single pass an integrity check for data to be transferred between said secure module and a non secure module of said system on chip with a seed and an encryption key, the non secure module storing a group of images belonging to different image owners and associated respectively to different sets of requirements, and for encrypting/decrypting on the fly and in said single pass said data with said encryption key, and b) a control means (11 j) for providing said encryption key and said seed to said stream ciphering means (13 j) and for requesting data transfer and retrieving status from said secure and non secure modules for allowing said transfer of encrypted/decrypted data between said secure and non secure modules.
A process for purifying alkanesulfonic anhydride which comprises the following steps of: (a) feeding a stream comprising alkanesulfonic anhydride, sulfuric acid, high boilers and residual low boilers into a melt crystallization to form crystals of the alkanesulfonic anhydride suspended in mother liquor, (b) performing a solid-liquid separation to remove the crystals from the mother liquor, (c) optionally washing the crystals to remove mother liquor adhering to the crystals. (a) feeding a stream comprising alkanesulfonic anhydride, sulfuric acid, high boilers and residual low boilers into a melt crystallization to form crystals of the alkanesulfonic anhydride suspended in mother liquor, (b) performing a solid-liquid separation to remove the crystals from the mother liquor, (c) optionally washing the crystals to remove mother liquor adhering to the crystals.
A measurement apparatus for measuring an electronic device that vibrates a touch surface to present a tactile sensation, the measurement apparatus comprising: a vibration detector configured to detect vibration of a touch surface, the vibration being produced in response to pressure applied to the touch surface; a pressure detector to detect the pressure applied to the touch surface; and a controller; wherein the controller is configured to evaluate the electronic device based on pressure detected by the pressure detector when a predetermined vibration is detected by the vibration detector and/or based on vibration detected by the vibration detector when a predetermined pressure is detected by the pressure detector; characterized in that the pressure detector is configured to be disposed on the touch surface. a vibration detector configured to detect vibration of a touch surface, the vibration being produced in response to pressure applied to the touch surface; a pressure detector to detect the pressure applied to the touch surface; and a controller; wherein the controller is configured to evaluate the electronic device based on pressure detected by the pressure detector when a predetermined vibration is detected by the vibration detector and/or based on vibration detected by the vibration detector when a predetermined pressure is detected by the pressure detector; characterized in that the pressure detector is configured to be disposed on the touch surface.
A Prostaglandin E Receptor 3 (PTGER3) inhibitor for use in a method of reducing viability of TTFields-resistant cancer cells in a subject or preventing cancer cells of a subject from developing resistance to alternating electric fields, the method comprising administering the Prostaglandin E Receptor 3 (PTGER3) inhibitor to the subject and applying an alternating electric field to the cancer cells of the subject, the alternating electric field having a frequency between 100 and 500 kHz.
A bolt comprising: a body having a head, a circumferential sidewall, a central bore extending at least a portion of a length of the bolt, and a plurality of slots extending through the sidewall from the bore; a plurality of positioning arms at least partially located within an interior of the bolt; and a screw seated within the head, wherein a position of the screw within the head controls an extent to which the plurality of the positioning arms are extended through the sidewall; characterised in that: the plurality of positioning arms includes at least three positioning arms equidistantly located about the periphery of the sidewall. a body having a head, a circumferential sidewall, a central bore extending at least a portion of a length of the bolt, and a plurality of slots extending through the sidewall from the bore; a plurality of positioning arms at least partially located within an interior of the bolt; and a screw seated within the head, wherein a position of the screw within the head controls an extent to which the plurality of the positioning arms are extended through the sidewall; characterised in that: the plurality of positioning arms includes at least three positioning arms equidistantly located about the periphery of the sidewall.
A deposition system (60, 70) for thin film deposition of a solid material onto a substrate characterized by: a) a plurality of sources (28a, 28b, 28c) for, respectively, a plurality of gaseous materials comprising at least a first, a second, and a third source for a first, a second, and a third gaseous material, respectively; b) a delivery head for delivering the gaseous materials to a substrate receiving thin film deposition and comprising: (i) a plurality of inlet ports (14, 16, 18) comprising at least a first, a second, and a third inlet port for receiving the first, the second, and the third gaseous material, respectively; and (ii) an output face comprising a plurality of output openings and facing the substrate a distance from the surface of the substrate, wherein the first, the second, and the third gaseous materials are simultaneously exhausted from the output openings in the output face, c) an optional substrate support for supporting the substrate; and d) maintaining a substantially uniform distance between the output face of the delivery head and the substrate surface during thin film deposition, wherein pressure generated due to flows of one or more of the gaseous materials from the delivery head to the substrate surface for thin film deposition provides at least part of the force separating the output face of the delivery head from the surface of the substrate. a) a plurality of sources (28a, 28b, 28c) for, respectively, a plurality of gaseous materials comprising at least a first, a second, and a third source for a first, a second, and a third gaseous material, respectively; b) a delivery head for delivering the gaseous materials to a substrate receiving thin film deposition and comprising: (i) a plurality of inlet ports (14, 16, 18) comprising at least a first, a second, and a third inlet port for receiving the first, the second, and the third gaseous material, respectively; and (ii) an output face comprising a plurality of output openings and facing the substrate a distance from the surface of the substrate, wherein the first, the second, and the third gaseous materials are simultaneously exhausted from the output openings in the output face, (i) a plurality of inlet ports (14, 16, 18) comprising at least a first, a second, and a third inlet port for receiving the first, the second, and the third gaseous material, respectively; and (ii) an output face comprising a plurality of output openings and facing the substrate a distance from the surface of the substrate, wherein the first, the second, and the third gaseous materials are simultaneously exhausted from the output openings in the output face, c) an optional substrate support for supporting the substrate; and d) maintaining a substantially uniform distance between the output face of the delivery head and the substrate surface during thin film deposition, wherein pressure generated due to flows of one or more of the gaseous materials from the delivery head to the substrate surface for thin film deposition provides at least part of the force separating the output face of the delivery head from the surface of the substrate.
A crusher for crushing mineral material comprising a substantially fixed crushing element and a crushing element configured to be movable, which crushing elements are arranged to receive a force, the crusher further comprising: a hydraulic cylinder and a piston in the hydraulic cylinder; a piston rod attached to the piston and extending through a first end of the hydraulic cylinder and being in connection with the crushing element configured to be movable; a first space inside the hydraulic cylinder around the part of said piston rod inside the hydraulic cylinder; a second space inside the hydraulic cylinder in front of the piston; a valve; a first hydraulic connection from said valve to said first space; characterized in that during operation, when the piston moves further than previously in the hydraulic cylinder towards said second space due to said force, said valve is configured, in response only to the piston moving in the hydraulic cylinder towards said second space due to said force, to enable a flow of hydraulic fluid into said first space. a hydraulic cylinder and a piston in the hydraulic cylinder; a piston rod attached to the piston and extending through a first end of the hydraulic cylinder and being in connection with the crushing element configured to be movable; a first space inside the hydraulic cylinder around the part of said piston rod inside the hydraulic cylinder; a second space inside the hydraulic cylinder in front of the piston; a valve; a first hydraulic connection from said valve to said first space;
A process for preparing a rubber composition comprising at least the following steps: polymerizing glycerol mono-methacrylate in the presence of a Co complex as catalytic chain transfer agent, to obtain a poly(glycerol mono-methacrylate) being an oligomer or polymer of glycerol mono-methacrylate and having a number average molecular weight (M n) in the range of from 160 to 3200 g/mol and preferably a dispersity Ð of equal to or less than 4; crosslinking the poly(glycerol mono-methacrylate) with borax to obtain a poly(glycerol mono-methacrylate) dynamic boronic ester complex; and blending the poly(glycerol mono-methacrylate) dynamic boronic ester complex with a vulcanization activator system, a dienic rubber, sulfur, and a vulcanization accelerator, to prepare the rubber composition. polymerizing glycerol mono-methacrylate in the presence of a Co complex as catalytic chain transfer agent, to obtain a poly(glycerol mono-methacrylate) being an oligomer or polymer of glycerol mono-methacrylate and having a number average molecular weight (M n) in the range of from 160 to 3200 g/mol and preferably a dispersity Ð of equal to or less than 4; crosslinking the poly(glycerol mono-methacrylate) with borax to obtain a poly(glycerol mono-methacrylate) dynamic boronic ester complex; and blending the poly(glycerol mono-methacrylate) dynamic boronic ester complex with a vulcanization activator system, a dienic rubber, sulfur, and a vulcanization accelerator, to prepare the rubber composition.
An article comprising: (a) a microsphere layer comprising a plurality of microspheres disposed in a monolayer; (b) a bead bonding layer comprising a first major surface and a second opposing major surface and the plurality of microspheres is partially embedded in the first major surface of the bead bonding layer, and comprises a thermoset polyurethane having a glass transition temperature of at least 35°C; (c) a primer layer disposed on the second major surface of the bead bonding layer wherein the primer layer comprises a copolymer of polyurea and polyurethane and wherein the primer layer is covalently attached to the bead bonding layer via urea linkages; and (d) an elastomeric layer disposed on the primer layer opposite the bead bonding layer, wherein the elastomeric layer comprises a polyurethane thermoplastic elastomer. (a) a microsphere layer comprising a plurality of microspheres disposed in a monolayer; (b) a bead bonding layer comprising a first major surface and a second opposing major surface and the plurality of microspheres is partially embedded in the first major surface of the bead bonding layer, and comprises a thermoset polyurethane having a glass transition temperature of at least 35°C; (c) a primer layer disposed on the second major surface of the bead bonding layer wherein the primer layer comprises a copolymer of polyurea and polyurethane and wherein the primer layer is covalently attached to the bead bonding layer via urea linkages; and (d) an elastomeric layer disposed on the primer layer opposite the bead bonding layer, wherein the elastomeric layer comprises a polyurethane thermoplastic elastomer.
Atrio-ventricular valve stent having a tubular shape, with a sub annular anterior side, a sub annular posterior side and sub annular lateral sides, the sub annular anterior side comprising a self-folding native leaflet engagement member that forms a straight extension of said sub annular anterior side when the stent is collapsed and that is folded on itself when the stent is in an expanded state; said engagement member forming an integral part of the stent and wherein each sub annular lateral side is longer than said sub annular anterior side when the stent is in an expanded state.
A method, comprising: forming a plurality of vias (345, 410) through a top layer of a stack that comprises a first dielectric material at a first layer, a second dielectric material at a second layer, and a memory material at a third layer between the first layer and the second layer; forming a first channel in the first dielectric material, the first channel connecting at least two of the plurality of vias; filling the first channel with an electrode material; forming, in the electrode material within the first channel, a second channel that is narrower than the first channel; and filling the second channel with the first dielectric material. forming a plurality of vias (345, 410) through a top layer of a stack that comprises a first dielectric material at a first layer, a second dielectric material at a second layer, and a memory material at a third layer between the first layer and the second layer; forming a first channel in the first dielectric material, the first channel connecting at least two of the plurality of vias; filling the first channel with an electrode material; forming, in the electrode material within the first channel, a second channel that is narrower than the first channel; and filling the second channel with the first dielectric material.
1. An automated trailer coupling arrangement, comprising: a receiver member configured to be supported on a towed vehicle and including a first pneumatic coupler and a first electrical coupler; a shuttle member including a second pneumatic coupler configured to couple to a pneumatic supply source of a towing vehicle, and a second electrical coupler configured to couple to an electrical supply source of the towing vehicle; and a control arm assembly configured to be supported on a towing vehicle, comprising: a carrier member configured to operably couple and uncouple with the shuttle member; an actuator coupled to the carrier member and configured to move the carrier member between a first position where the carrier member is coupled with the shuttle member and the shuttle member is spaced from the receiver member, and a second position where the second pneumatic coupler is coupled with the first pneumatic coupler and the second electrical coupler is coupled with the first electrical coupler and the carrier member is uncoupled and spaced from the shuttle member; characterized in that the control arm assembly includes a four-bar linkage assembly (24, 46, 48, 50). a receiver member configured to be supported on a towed vehicle and including a first pneumatic coupler and a first electrical coupler; a shuttle member including a second pneumatic coupler configured to couple to a pneumatic supply source of a towing vehicle, and a second electrical coupler configured to couple to an electrical supply source of the towing vehicle; and a control arm assembly configured to be supported on a towing vehicle, comprising: a carrier member configured to operably couple and uncouple with the shuttle member; an actuator coupled to the carrier member and configured to move the carrier member between a first position where the carrier member is coupled with the shuttle member and the shuttle member is spaced from the receiver member, and a second position where the second pneumatic coupler is coupled with the first pneumatic coupler and the second electrical coupler is coupled with the first electrical coupler and the carrier member is uncoupled and spaced from the shuttle member; characterized in that the control arm assembly includes a four-bar linkage assembly (24, 46, 48, 50). a carrier member configured to operably couple and uncouple with the shuttle member; an actuator coupled to the carrier member and configured to move the carrier member between a first position where the carrier member is coupled with the shuttle member and the shuttle member is spaced from the receiver member, and a second position where the second pneumatic coupler is coupled with the first pneumatic coupler and the second electrical coupler is coupled with the first electrical coupler and the carrier member is uncoupled and spaced from the shuttle member; characterized in that the control arm assembly includes a four-bar linkage assembly (24, 46, 48, 50).
A method for obtaining crystals from a mother solution, in which mother solution is fed into a crystallisation device, in which supersaturation of the mother solution is brought about by open and/or closed-loop control of the temperature (θ), in which seed crystals are added to the mother solution at a seeding point (Sp), in which the seed crystals are grown as crystal nuclei by continuous closed-loop process control and are finally removed from the method as crystals and form the product yield, in which the formation of crystal nuclei in the mother solution is countered by steps in the closed-loop process control, characterised in that, during the continuous closed-loop process control and while the method is running, in the mother solution data are currently determined by sensors, in that from these data the position of the limit of the formation of crystal nuclei is determined while the method is running, as a value of the concentration (c) and the temperature (θ), in that the position of the limit of nucleation is determined using iterative approximation, and in that this current determined position of the limit of the formation of crystal nuclei is used as the basis for the closed-loop process control of the crystallisation.
Solid material having a spinel structure and a composition according to general formula Li a AX 4 wherein X is selected from the group consisting of Cl, F, Br and I (a) A is M1 b M2 c wherein M1 is a first trivalent metal and M2 is a second trivalent metal different from M1 0.1 ≤ b ≤ 0.8 0 ≤ c ≤ 0.7 0.6 ≤ b + c ≤ 0.8 a = 4 − 3 b + c (b) A is M1 d M3 e wherein M1 is a trivalent metal and M3 is a divalent metal 0.3 ≤ d ≤ 0.8 0.2 ≤ e ≤ 0.7 0.9 ≤ d + e ≤ 1.1 a = 4 − 3 d − 2 e. (a) A is M1 b M2 c wherein M1 is a first trivalent metal and M2 is a second trivalent metal different from M1 0.1 ≤ b ≤ 0.8 0 ≤ c ≤ 0.7 0.6 ≤ b + c ≤ 0.8 a = 4 − 3 b + c (b) A is M1 d M3 e wherein M1 is a trivalent metal and M3 is a divalent metal 0.3 ≤ d ≤ 0.8 0.2 ≤ e ≤ 0.7 0.9 ≤ d + e ≤ 1.1 a = 4 − 3 d − 2 e.