mhurhangee/ep-ind-claims huggingface dataset:
A solid state non-volatile memory unit comprising: a first encoder adapted to encode first data; a modulator adapted to modulate the encoded first data; a multi-level solid state non-volatile memory array having memory cells, the memory cells being adapted to store the modulated and encoded first data using a first number of voltage levels; a demodulator adapted to demodulate the modulated and encoded first data retrieved from the multi-level solid state non-volatile memory array; an analog-to-digital converter working in conjunction with or as a part of the demodulator to provide an output digital signal for the modulated and encoded first data retrieved from the multi-level solid state non-volatile memory array, the output digital signal comprising a second number of voltage levels that is greater than the first number of voltage levels; and a first decoder adapted to decode the output digital signal; a second encoder in communication with the first encoder and adapted to provide second encoded data as the first data to the first encoder; and a second decoder in communication with the first decoder and adapted to receive the decoded output digital signal from the first decoder, characterized by the first encoder being adpated to perform a first error correction code technique and the second encoder being adapted to perform a second error correction code technique, the first error correction code technique being different from the second error correction code technique. a first encoder adapted to encode first data; a modulator adapted to modulate the encoded first data; a multi-level solid state non-volatile memory array having memory cells, the memory cells being adapted to store the modulated and encoded first data using a first number of voltage levels; a demodulator adapted to demodulate the modulated and encoded first data retrieved from the multi-level solid state non-volatile memory array; an analog-to-digital converter working in conjunction with or as a part of the demodulator to provide an output digital signal for the modulated and encoded first data retrieved from the multi-level solid state non-volatile memory array, the output digital signal comprising a second number of voltage levels that is greater than the first number of voltage levels; and a first decoder adapted to decode the output digital signal; a second encoder in communication with the first encoder and adapted to provide second encoded data as the first data to the first encoder; and a second decoder in communication with the first decoder and adapted to receive the decoded output digital signal from the first decoder, characterized by the first encoder being adpated to perform a first error correction code technique and the second encoder being adapted to perform a second error correction code technique, the first error correction code technique being different from the second error correction code technique.
A method for handling touch events at a multi-touch device (200, 210), comprising: displaying two or more views; executing one or more software elements, each software element being associated with a particular view of the two or more views; receiving one or more touches at a first view of the two or more views; sending a first touch event describing one of said one or more touches to a software element associated with the first view, and while receiving the one or more touches at the first view, receiving one or more touches at a second view which is associated with a software element of said one or more software elements and is distinct from the first view; the method being characterised in that it further comprises: conditionally sending one or more touch events, each touch event describing a respective touch of the one or more touches at the second view, to the software element associated with the second view based on at least a value of a first exclusive touch flag associated with the first view, wherein the first exclusive touch flag is a flag that indicates whether or not the first view is to allow other views to receive touch events while the first view is receiving a touch event. displaying two or more views; executing one or more software elements, each software element being associated with a particular view of the two or more views; receiving one or more touches at a first view of the two or more views; sending a first touch event describing one of said one or more touches to a software element associated with the first view, and while receiving the one or more touches at the first view, receiving one or more touches at a second view which is associated with a software element of said one or more software elements and is distinct from the first view; the method being characterised in that it further comprises: conditionally sending one or more touch events, each touch event describing a respective touch of the one or more touches at the second view, to the software element associated with the second view based on at least a value of a first exclusive touch flag associated with the first view, wherein the first exclusive touch flag is a flag that indicates whether or not the first view is to allow other views to receive touch events while the first view is receiving a touch event. conditionally sending one or more touch events, each touch event describing a respective touch of the one or more touches at the second view, to the software element associated with the second view based on at least a value of a first exclusive touch flag associated with the first view, wherein the first exclusive touch flag is a flag that indicates whether or not the first view is to allow other views to receive touch events while the first view is receiving a touch event.
A plate suitable for use in manufacturing a wireless communication module, said plate comprising: - a substrate delimited by edges (302a, 302b, 302c, 302d), - an antenna having a surface that is at least partially electrically insulated, said antenna comprising: - two ends (306, 308) suitable for being connected to an electronic chip, and - a plurality of windings (312, 314, 516, 718), each including at least one turn, the plate comprising a plurality of portions (330, 332, 534, 636) delimited by a folding line assembly comprising at least one folding line (340, 542) and the edges (302a, 302b, 302c, 302d) of the substrate, such that: - at least two of the portions (330, 332, 534, 636) each comprise at least one winding (312, 314, 516, 718), and - the two ends (306, 308) are positioned at the same portion (330, 332, 534, 636), characterized in that the antenna is formed by a continuous wire of material. - a substrate delimited by edges (302a, 302b, 302c, 302d), - an antenna having a surface that is at least partially electrically insulated, said antenna comprising: - two ends (306, 308) suitable for being connected to an electronic chip, and - a plurality of windings (312, 314, 516, 718), each including at least one turn, - two ends (306, 308) suitable for being connected to an electronic chip, and - a plurality of windings (312, 314, 516, 718), each including at least one turn, - at least two of the portions (330, 332, 534, 636) each comprise at least one winding (312, 314, 516, 718), and - the two ends (306, 308) are positioned at the same portion (330, 332, 534, 636),
A method for making an anchor bolt sleeve comprising: hardening a steel blank using a heat treatment technique; and then further hardening the steel blank by cold working the steel blank into an anchor bolt sleeve, the anchor bolt sleeve being expandably receptive to a wedge of an anchor bolt. hardening a steel blank using a heat treatment technique; and then further hardening the steel blank by cold working the steel blank into an anchor bolt sleeve, the anchor bolt sleeve being expandably receptive to a wedge of an anchor bolt.
A heating chair using a carbon fiber heating element having a multi-layered thermal layer, the heating chair comprising: a chair having a mounting groove of a predetermined depth on an upper surface of a seat; a thermal pad mounted on the mounting groove of the seat; a carbon fiber heating element installed on an upper surface of the thermal pad and configured to generate heat when supplied with power; a heating plate installed on an upper side of the carbon fiber heating element and configured to be heated by the carbon fiber heating element; a conductive cover plate configured to cover an upper side of the heating plate in a floating structure to form a thermal air layer between the heating plate and the conductive cover plate; a finishing silicon configured to close edges of the mounting groove of the seat to seal the thermal air layer, characterized in one or more inner conductive cover plates installed in the thermal air layer between the heating plate and the conductive cover plate to cover the upper side of the heating plate and to horizontally divide the thermal air layer into multiple layers. a chair having a mounting groove of a predetermined depth on an upper surface of a seat; a thermal pad mounted on the mounting groove of the seat; a carbon fiber heating element installed on an upper surface of the thermal pad and configured to generate heat when supplied with power; a heating plate installed on an upper side of the carbon fiber heating element and configured to be heated by the carbon fiber heating element; a conductive cover plate configured to cover an upper side of the heating plate in a floating structure to form a thermal air layer between the heating plate and the conductive cover plate; a finishing silicon configured to close edges of the mounting groove of the seat to seal the thermal air layer, characterized in one or more inner conductive cover plates installed in the thermal air layer between the heating plate and the conductive cover plate to cover the upper side of the heating plate and to horizontally divide the thermal air layer into multiple layers.
A method for preparing fluorinated carboxylic acids and theirs salts comprising subjecting a fluorinated alcohol of the general formula: A-CH 2 -OH to at least one first and at least one second oxidizing agent to produce a highly fluorinated carboxylic acid or their salts of the general formula: A-COO - M +, wherein M + represents a cation and wherein A in formulas and is the same and A represents the residue: R-CFX- wherein X is selected from a hydrogen, a halogen, or an alkyl, alkenyl, cycloalkyl, or aryl residue, which may or may not contain one or more fluorine atoms and which may or may not contain one or more catenary oxygen atoms and R is independently selected from an alkyl, cycloalkyl and aryl residue that may or may not contain fluorine atoms and contains one or more catenary oxygen atoms (i.e., ether linkages); and wherein said at least one first oxidizing agent is converted, by action of the second oxidizing agent, into a reactive species capable of oxidizing the fluorinated alcohol and wherein the first oxidizing agent is selected from (a) a compound containing N-oxyls having the general formula: wherein each of R1 to R6 may be identical or different and represents independently from each other a saturated aliphatic or an aromatic residue or a combination thereof or (b) a cyclic compound comprising at least one N-oxyl or at least one P-oxyl group and wherein the N or P atoms of the N-oxyl or P-oxyl groups are part of the cyclic structure and wherein the second oxidizing agent is selected from an electric current of an electrolytic cell, a gas, preferably chlorine, oxygen, or ozone, or a combination thereof. wherein X is selected from a hydrogen, a halogen, or an alkyl, alkenyl, cycloalkyl, or aryl residue, which may or may not contain one or more fluorine atoms and which may or may not contain one or more catenary oxygen atoms and R is independently selected from an alkyl, cycloalkyl and aryl residue that may or may not contain fluorine atoms and contains one or more catenary oxygen atoms (i.e., ether linkages); and wherein said at least one first oxidizing agent is converted, by action of the second oxidizing agent, into a reactive species capable of oxidizing the fluorinated alcohol and wherein the first oxidizing agent is selected from (a) a compound containing N-oxyls having the general formula: wherein each of R1 to R6 may be identical or different and represents independently from each other a saturated aliphatic or an aromatic residue or a combination thereof or (b) a cyclic compound comprising at least one N-oxyl or at least one P-oxyl group and wherein the N or P atoms of the N-oxyl or P-oxyl groups are part of the cyclic structure and wherein the second oxidizing agent is selected from an electric current of an electrolytic cell, a gas, preferably chlorine, oxygen, or ozone, or a combination thereof.
Device for flocking a part, in particular a part for a motor vehicle, said device comprising a flocking cabin in which flocking fibres are applied to the part that is provided with an adhesive layer, and a handling device to which the part is attached or is attachable, and by means of which the part is able to be moved into the flocking cabin and able to be removed therefrom again, and during flocking is movable in the flocking cabin, wherein the handling device comprises a first handling component and a second handling component, wherein the first handling component has a rod and a linear displacement installation and a first rotation installation, wherein the rod along the linear axis thereof is displaceable in a linear manner by means of the linear displacement installation, and by means of the first rotation installation is rotatable about the longitudinal axis of said rod, said longitudinal axis thus forming a first rotation axis, characterized in that the second handling component is attached to the rod and comprises a holding installation for holding the part, and a second rotation installation, disposed between the holding installation and the rod, for rotating the holding installation about a second rotation axis, wherein the second rotation axis is inclined in relation to the first rotation axis, in particular is perpendicular to the first rotation axis.
A method of removing material that fouls processing equipment, the method comprising applying a composition comprising N,N-dimethylacetamide (DMAC) to fouling material deposited on the processing equipment to solubilize and remove the fouling material from the processing equipment, wherein the processing equipment is used in production of ethylene.
A method of proliferating stem cells comprising: introducing medium, microcarriers and stem cells into a vessel, cultivating stem cells on microcarriers in said vessel, wherein the cells do not lose their stem cell properties after the beginning of cultivating, and harvesting cells on microcarriers from said vessel; wherein after the beginning of cultivating the medium is alternately agitated for between 10 and 100 minutes and not agitated between 10 and 60 minutes. introducing medium, microcarriers and stem cells into a vessel, cultivating stem cells on microcarriers in said vessel, wherein the cells do not lose their stem cell properties after the beginning of cultivating, and harvesting cells on microcarriers from said vessel; wherein after the beginning of cultivating the medium is alternately agitated for between 10 and 100 minutes and not agitated between 10 and 60 minutes.
A sterile composition for generating antimicrobial activity, comprising: a purified enzyme that is able to convert a substrate to release hydrogen peroxide; and a substance that includes a purified substrate for the enzyme, wherein the composition does not include sufficient free water to allow the enzyme to convert the substrate, wherein the composition does not include honey or any other unrefined natural substance, and optionally wherein the composition does not comprise any added peroxidase.
A navigation device for navigating along a select pathway, wherein a select pathway is a constrained pathway, comprising: a sensor module comprising a dead reckoning portion, operable to provide position estimates based on magnetic field strength measurements and acceleration and heading data from the dead reckoning portion, wherein the position estimates are stored as history of position estimates; a processing unit configured to record the magnetic field strength measured by the sensor module of an area surrounding a user of the navigation device while the user traverses a select pathway, the processing unit being further configured to detect a track crossing based on a comparison of a combined magnetic field strength and heading determination at a current position and one or more previous position estimates from the stored history of position estimates, wherein a track crossing is defined as when the select pathway is traversed at least a second time, and for each measured track crossing, align the current position with the one or more previous position estimates and adjust an accumulation of position error below an error threshold based on the one or more previous position estimates; and wherein the processing unit is configured to correct any intervening positions and error estimates between the current position and the one or more previous position estimates. a sensor module comprising a dead reckoning portion, operable to provide position estimates based on magnetic field strength measurements and acceleration and heading data from the dead reckoning portion, wherein the position estimates are stored as history of position estimates; a processing unit configured to record the magnetic field strength measured by the sensor module of an area surrounding a user of the navigation device while the user traverses a select pathway, the processing unit being further configured to detect a track crossing based on a comparison of a combined magnetic field strength and heading determination at a current position and one or more previous position estimates from the stored history of position estimates, wherein a track crossing is defined as when the select pathway is traversed at least a second time, and for each measured track crossing, align the current position with the one or more previous position estimates and adjust an accumulation of position error below an error threshold based on the one or more previous position estimates; and wherein the processing unit is configured to correct any intervening positions and error estimates between the current position and the one or more previous position estimates.
A mechanical link system for a pedal device, comprising: a bracket device, a pedal arm pivotally arranged in relation to the bracket device at a first portion of the pedal arm, wherein the pedal arm is pivotable between at least a first position, a second position and a third position upon increasing or reducing a load on the pedal arm, wherein the pedal arm is unloaded in the first position and wherein an increasing load is required to pivot the pedal arm to the third position from the first position via the second position, a first link arm, a second link arm, a first spring device, a second spring device, wherein the pedal arm is mechanically interconnected to the first link arm, wherein a first portion of the first link arm is pivotally arranged to a first portion of the first spring device, and wherein a second portion of the first spring device is arranged to the bracket device, wherein a first portion of the second link arm is pivotally arranged to the bracket device, wherein a second portion of the second link arm is pivotally arranged to a second portion of the first link arm, wherein a third portion of the second link arm is connected to a first portion of the second spring device, wherein a second portion of the second spring device is arranged to the bracket device, wherein the pivoting of the pedal arm from the first position towards the second position causes the first spring device to be compressed at a higher rate than the second spring device, wherein the pivoting of the pedal arm from the second position to the third position causes the second spring device to be compressed at a higher rate than the first spring device, wherein the pedal arm is mechanically interconnected to the first link arm via a guide element that is slidingly connected to the first link arm. a bracket device, a pedal arm pivotally arranged in relation to the bracket device at a first portion of the pedal arm, wherein the pedal arm is pivotable between at least a first position, a second position and a third position upon increasing or reducing a load on the pedal arm, wherein the pedal arm is unloaded in the first position and wherein an increasing load is required to pivot the pedal arm to the third position from the first position via the second position, a first link arm, a second link arm, a first spring device, a second spring device,
A computer-implemented method, comprising: obtaining, by a local network node, network-neighborhood information from one or more network neighbors, wherein the network-neighborhood information includes duplex-neighborhood information that indicates at least a set of neighboring devices to the network neighbor that mutually listen to packets received by each other, and a set of remote network nodes accessible via a respective neighbor, wherein the remote network nodes are outside of the network of the local network node; determining, based on the network-neighborhood information, one or more groups of network neighbors, wherein a respective group includes one or more mutually-connected network peers which provide access to the same remote networks; and defining, by the local network node, a virtual interface (116, 118) for a respective group of stable network neighbors whose connection state is constant, wherein the virtual interface's member nodes include the local network node and the respective group's mutually-connected network peers, thereby providing the local network node with an interface to various network neighbors that avoids forwarding loops. obtaining, by a local network node, network-neighborhood information from one or more network neighbors, wherein the network-neighborhood information includes duplex-neighborhood information that indicates at least a set of neighboring devices to the network neighbor that mutually listen to packets received by each other, and a set of remote network nodes accessible via a respective neighbor, wherein the remote network nodes are outside of the network of the local network node; determining, based on the network-neighborhood information, one or more groups of network neighbors, wherein a respective group includes one or more mutually-connected network peers which provide access to the same remote networks; and defining, by the local network node, a virtual interface (116, 118) for a respective group of stable network neighbors whose connection state is constant, wherein the virtual interface's member nodes include the local network node and the respective group's mutually-connected network peers, thereby providing the local network node with an interface to various network neighbors that avoids forwarding loops.