mhurhangee/ep-ind-claims huggingface dataset:
A positive working photosensitive composition comprising: a) at least one photoacid generator; b) at least one novolak polymer; c) at least one polymer, having a polymer backbone, said polymer comprising a structure of the following formula: wherein R 1 ― R 5 are, independently, -H, F or -CH 3, A is a linear or branched C 1 -C 10 alkylene group, B is a C 1 -C 12 alkyl or alicyclic group, D is a linking group that may be a chemical bond, a carboxylate group, wherein the carbonyl carbon is bonded to the polymer backbone, or a -COOCH 2 - group, wherein the carbonyl carbon is bonded to the polymer backbone, Ar is a substituted or unsubstituted aromatic group or heteroaromatic group, E is a linear or branched C 2 -C 10 alkylene group, G is an acid cleavable group, v is 0 - 10 mole%, w is 7 mole% - 15 mole%, x is 14 mole% - 80 mole%, y is 0 mole% - 40 mole% and z is 20 mole% - 50 mole%. a) at least one photoacid generator; b) at least one novolak polymer; c) at least one polymer, having a polymer backbone, said polymer comprising a structure of the following formula: wherein R 1 ― R 5 are, independently, -H, F or -CH 3, A is a linear or branched C 1 -C 10 alkylene group, B is a C 1 -C 12 alkyl or alicyclic group, D is a linking group that may be a chemical bond, a carboxylate group, wherein the carbonyl carbon is bonded to the polymer backbone, or a -COOCH 2 - group, wherein the carbonyl carbon is bonded to the polymer backbone, Ar is a substituted or unsubstituted aromatic group or heteroaromatic group, E is a linear or branched C 2 -C 10 alkylene group, G is an acid cleavable group, v is 0 - 10 mole%, w is 7 mole% - 15 mole%, x is 14 mole% - 80 mole%, y is 0 mole% - 40 mole% and z is 20 mole% - 50 mole%.
A method, in a wireless device, for detecting time and frequency offsets for a synchronization signal in a received signal, the method comprising: obtaining, from the received signal, a sequence of samples for a first time interval; calculating a differentially decoded sequence from the obtained sequence of samples, each element of the differentially decoded sequence representing a phase shift between a pair of samples from the obtained sequence of samples; correlating the calculated differentially decoded sequence with a first reference sequence corresponding to the synchronization signal, at each of a plurality of time offsets, to generate a corresponding plurality of first correlation results, and identifying which of the plurality of time offsets results in a largest one of the first correlation results; determining that the largest one of the first correlation results does not meet a predetermined reliability criterion; and in response to said determining, coherently detecting the synchronization signal by correlating the obtained sequence of samples with a second reference sequence, at each of a plurality of time offsets and at each of a plurality of frequency offsets, to generate a corresponding plurality of second correlation results, and identifying which combination of time offset and frequency offset results in a largest one of the second correlation results; wherein the first reference sequence comprises a differentially decoded version of the second reference sequence. obtaining, from the received signal, a sequence of samples for a first time interval; calculating a differentially decoded sequence from the obtained sequence of samples, each element of the differentially decoded sequence representing a phase shift between a pair of samples from the obtained sequence of samples; correlating the calculated differentially decoded sequence with a first reference sequence corresponding to the synchronization signal, at each of a plurality of time offsets, to generate a corresponding plurality of first correlation results, and identifying which of the plurality of time offsets results in a largest one of the first correlation results; determining that the largest one of the first correlation results does not meet a predetermined reliability criterion; and in response to said determining, coherently detecting the synchronization signal by correlating the obtained sequence of samples with a second reference sequence, at each of a plurality of time offsets and at each of a plurality of frequency offsets, to generate a corresponding plurality of second correlation results, and identifying which combination of time offset and frequency offset results in a largest one of the second correlation results;
A method for classifying at least one input image representing a target particle (11a-11f) in a sample, the method being characterized in that it comprises implementation, by data-processing means of a client, of steps of: (b) extraction of a feature map of said target particle (11a-11f) from the input image by means of a convolutional neural network trained beforehand on a public image database; (c) reduction of the number of variables of the extracted feature map, by means of the t-SNE algorithm; (d) unsupervised classification of said input image depending on said feature map having a reduced number of variables. (b) extraction of a feature map of said target particle (11a-11f) from the input image by means of a convolutional neural network trained beforehand on a public image database; (c) reduction of the number of variables of the extracted feature map, by means of the t-SNE algorithm; (d) unsupervised classification of said input image depending on said feature map having a reduced number of variables.
Electric motor comprising: - a stator arrangement having an even number of stator poles which are arranged in a circumferential direction and comprise permanent-magnet stator poles and consequent poles in a consequent-pole arrangement, - a rotor having an armature which is arranged in relation to the stator poles such that a surface which is directed towards the stator poles forms permanent-magnet air gaps with the permanent-magnet stator poles and forms consequent-pole air gaps with the consequent poles, wherein the width of the consequent-pole air gaps is greater than the width of the permanent-magnet air gaps, characterized in that the width of the consequent-pole air gaps is selected at most such that a flux difference between the magnetic fluxes through the consequent-pole air gaps of opposite consequent poles given a prespecified eccentricity is greater than the flux difference, which is caused given the prespecified eccentricity in the direction of the arrangement of the permanent magnets, between the magnetic fluxes through the permanent-magnet air gaps of opposite permanent-magnet stator poles. - a stator arrangement having an even number of stator poles which are arranged in a circumferential direction and comprise permanent-magnet stator poles and consequent poles in a consequent-pole arrangement, - a rotor having an armature which is arranged in relation to the stator poles such that a surface which is directed towards the stator poles forms permanent-magnet air gaps with the permanent-magnet stator poles and forms consequent-pole air gaps with the consequent poles, wherein the width of the consequent-pole air gaps is greater than the width of the permanent-magnet air gaps, characterized in that the width of the consequent-pole air gaps is selected at most such that a flux difference between the magnetic fluxes through the consequent-pole air gaps of opposite consequent poles given a prespecified eccentricity is greater than the flux difference, which is caused given the prespecified eccentricity in the direction of the arrangement of the permanent magnets, between the magnetic fluxes through the permanent-magnet air gaps of opposite permanent-magnet stator poles.
A door system, comprising: a track that includes a channel; a panel movable between an open position and a closed position, and including a drive strip extending continuously along a lateral edge thereof; a plurality of spaced projections disposed on the drive strip such that the plurality of projections extend into the channel; and a drive gear that engages the plurality of projections to move the panel from the closed position to the open position, wherein the drive strip interconnects the plurality of spaced projections to span the gaps therebetween and has an adequate rigidity to be capabale of transmitting force from the drive gear along at least a portion of its length to move the panel from the closed position to the open position. a track that includes a channel; a panel movable between an open position and a closed position, and including a drive strip extending continuously along a lateral edge thereof; a plurality of spaced projections disposed on the drive strip such that the plurality of projections extend into the channel; and a drive gear that engages the plurality of projections to move the panel from the closed position to the open position, wherein the drive strip interconnects the plurality of spaced projections to span the gaps therebetween and has an adequate rigidity to be capabale of transmitting force from the drive gear along at least a portion of its length to move the panel from the closed position to the open position.
A process for identifying a microbe in a clinical sample by comparison of mass spectra produced by MALDI-TOF type mass spectrometry of a protein extract sample of said clinical sample to be analyzed containing said microbe, by comparison with reference spectra of at least one bank of spectra of a plurality of protein extracts of samples each containing a microbe chosen among respectively a plurality of reference microbes, characterized in that the steps are performed in which: a) a bank of reference spectra by MALDI-TOF type mass spectrometry is established, said reference spectra being produced on reference samples of protein extracts obtained by the same preparation process from clinical reference samples of the same nature comprising a lysis treatment of the microbes, without isolation and/or without culture of said microbes from said clinical reference samples, and b) a spectrum of a protein extract sample to be analyzed obtained from a clinical sample to be analyzed of the same nature as that of the reference samples is produced, said sample to be analyzed being obtained according to the same said preparation process from said clinical sample comprising a lysis treatment of any microbes it may contain, without isolation and/or without culture of said microbe from said clinical sample to be analyzed, and c) it is determined that said clinical specimen from which a sample to be analyzed has been obtained contains a given reference microbe selected from said plurality of different reference microbes of said reference library if the spectrum of the sample to be analyzed of step b) contains the set of characteristic peaks of a said reference spectrum of a reference sample containing said given reference microbe. a) a bank of reference spectra by MALDI-TOF type mass spectrometry is established, said reference spectra being produced on reference samples of protein extracts obtained by the same preparation process from clinical reference samples of the same nature comprising a lysis treatment of the microbes, without isolation and/or without culture of said microbes from said clinical reference samples, and b) a spectrum of a protein extract sample to be analyzed obtained from a clinical sample to be analyzed of the same nature as that of the reference samples is produced, said sample to be analyzed being obtained according to the same said preparation process from said clinical sample comprising a lysis treatment of any microbes it may contain, without isolation and/or without culture of said microbe from said clinical sample to be analyzed, and c) it is determined that said clinical specimen from which a sample to be analyzed has been obtained contains a given reference microbe selected from said plurality of different reference microbes of said reference library if the spectrum of the sample to be analyzed of step b) contains the set of characteristic peaks of a said reference spectrum of a reference sample containing said given reference microbe.
A delamination container comprising: an outer layer; and an inner layer, wherein the inner layer is adapted to peel from the outer layer and to shrink with reductions in contents, the outer layer consists of a plurality of layers (11a, 11b, 11c), and an innermost layer of the outer layer contains a lubricant. an outer layer; and an inner layer, wherein the inner layer is adapted to peel from the outer layer and to shrink with reductions in contents, the outer layer consists of a plurality of layers (11a, 11b, 11c), and an innermost layer of the outer layer contains a lubricant.
A tip protector assembly for use in an I.V. catheter assembly having a catheter hub having a central bore and including a catheter extending distally from a distal end of the catheter hub and a needle slidable through the catheter hub along the catheter, a resealable resilient septum positioned in the central bore the catheter hub, the tip protector assembly comprising: a tubular housing (102, 202, 400, 500, 600) having an outer surface, a proximal end portion having a proximal circumferential opening, a distal end portion having a distal circumferential opening (109, 209, 309, 409, 509, 609) configured to fit onto the proximal end of the catheter hub, and an interior space defining a central axis therethrough; a needle guard (936, 1036) within the interior space of the tubular housing (902, 1002) configured to capture a sharp distal tip of the needle slidable along the central axis through the needle guard (936, 1036) within the tubular housing (936, 1036); and a push tab (101, 401, 501, 601) extending radially from the distal end portion of the tubular housing (102, 202, 400, 500, 600) at an angle to the central axis, the size and shape of the push tab configured to fit a practitioner's thumb or finger to facilitate one-handed operation of the catheter assembly. a tubular housing (102, 202, 400, 500, 600) having an outer surface, a proximal end portion having a proximal circumferential opening, a distal end portion having a distal circumferential opening (109, 209, 309, 409, 509, 609) configured to fit onto the proximal end of the catheter hub, and an interior space defining a central axis therethrough; a needle guard (936, 1036) within the interior space of the tubular housing (902, 1002) configured to capture a sharp distal tip of the needle slidable along the central axis through the needle guard (936, 1036) within the tubular housing (936, 1036); and a push tab (101, 401, 501, 601) extending radially from the distal end portion of the tubular housing (102, 202, 400, 500, 600) at an angle to the central axis, the size and shape of the push tab configured to fit a practitioner's thumb or finger to facilitate one-handed operation of the catheter assembly.
Multiphase converter for delivering multiphase alternating current, the converter having a power output controlled by at least two semiconductor switches connected in a half-bridge circuit for each phase of the multiphase alternating current, the converter having a control device, which is set up to process a setpoint signal supplied to the control device for each phase as an input signal in the form of a respective bit stream (1, 2, 3, 30, 31, 32) which is one or more bits wide and in which the information contained therein is represented by an average value over a sequence of successive bits of the bit stream, the control device being arranged to generate actuation signals (P1, P2, P3) of the semiconductor switches by means of space vector modulation as a function of the bit streams (1, 2, 3, 30, 31, 32) supplied as input signal, the space vector modulation having an angular hysteresis and/or a magnitude hysteresis of the voltage space vector, a switching mechanism for generating switching sequences of the space vector modulation being present, which, in addition to state bits corresponding to the output switching signals and thus to the actuation signals (P1, P2, P3) of the semiconductor switches, has at least one additional bit in the form of a cycle bit which indicates the direction of travel in the cycle of the voltage space vector, the angular hysteresis being realized by means of the cycle bit.
A method for analyzing chromatin, comprising: (a) contacting chromatin of a cell or a cell nucleus with an insertional enzyme complex to produce tagged fragments of genomic DNA; and (b) sequencing at least some of said tagged fragments of genomic DNA to provide sequence information of said tagged fragments of genomic DNA. (a) contacting chromatin of a cell or a cell nucleus with an insertional enzyme complex to produce tagged fragments of genomic DNA; and (b) sequencing at least some of said tagged fragments of genomic DNA to provide sequence information of said tagged fragments of genomic DNA.
An assembly for anastomosing a tissue comprising: (a) a first set of modular magnets; and (b) a second set of modular magnets; wherein the first set of modular magnets and the second set of modular magnets are configured for placement on a first organ wall and a second organ wall respectively, and are further configured to magnetically couple such that a magnetic coupling of the first set of modular magnets with the second set of modular magnets compresses the first organ wall and the second organ wall between the magnetically coupled first set of modular magnets and second set of modular magnets to form an anastomosis between the first organ wall and the second organ wall; and characterized in that magnets of the first set of modular magnets are positioned so that an even number of dipoles of the magnets of the first set of modular magnets have an alternate north-south, south-north orientation. (a) a first set of modular magnets; and (b) a second set of modular magnets; wherein the first set of modular magnets and the second set of modular magnets are configured for placement on a first organ wall and a second organ wall respectively, and are further configured to magnetically couple such that a magnetic coupling of the first set of modular magnets with the second set of modular magnets compresses the first organ wall and the second organ wall between the magnetically coupled first set of modular magnets and second set of modular magnets to form an anastomosis between the first organ wall and the second organ wall; and characterized in that magnets of the first set of modular magnets are positioned so that an even number of dipoles of the magnets of the first set of modular magnets have an alternate north-south, south-north orientation. wherein the first set of modular magnets and the second set of modular magnets are configured for placement on a first organ wall and a second organ wall respectively, and are further configured to magnetically couple such that a magnetic coupling of the first set of modular magnets with the second set of modular magnets compresses the first organ wall and the second organ wall between the magnetically coupled first set of modular magnets and second set of modular magnets to form an anastomosis between the first organ wall and the second organ wall; and characterized in that magnets of the first set of modular magnets are positioned so that an even number of dipoles of the magnets of the first set of modular magnets have an alternate north-south, south-north orientation.
A method of performing fractional subframe transmission in a wireless communication system, comprising: in response to detecting that a channel becomes available; performing the fractional subframe transmission from a target position, wherein the target position is any one of at least one potential position predefined in a subframe, wherein each of the at least one potential position corresponds to a symbol of the subframe periodically. in response to detecting that a channel becomes available; performing the fractional subframe transmission from a target position, wherein the target position is any one of at least one potential position predefined in a subframe, wherein each of the at least one potential position corresponds to a symbol of the subframe periodically.
A connector for electrical connection, comprising: a coupler configured to be removably inserted in and connected to a reception side connector provided in an electric vehicle which is equipped with a storage battery; a cable comprising two or more electric wires that include a power line (90, 91) configured to be electrically connected to the reception side connector via the coupler, the cable being configured to be connected to a charging-discharging control device that is configured to perform at least one of supplying electric power to the electric vehicle and receiving electric power from the electric vehicle, a switch mechanism configured to open and close an electrical circuit between the coupler and the power line (90, 91), a failure detector configured to detect an occurrence of a failure of the coupler, a voltage signal transceiver configured to transmit a detection result of the failure detector to the charging-discharging control device through at least one first electric wire of the two or more electric wires other than the power line (90, 91), and a housing which is a connector main body and is provided at an end of the cable and in which the coupler, the switch mechanism, the failure detector and the voltage signal transceiver are housed, the charging-discharging control device being configured to transmit a control signal to the voltage signal transceiver when receiving the detection result of the failure detector, the switch mechanism being configured to open and close the electrical circuit in accordance with the control signal transmitted through the first electric wire. a coupler configured to be removably inserted in and connected to a reception side connector provided in an electric vehicle which is equipped with a storage battery; a cable comprising two or more electric wires that include a power line (90, 91) configured to be electrically connected to the reception side connector via the coupler, the cable being configured to be connected to a charging-discharging control device that is configured to perform at least one of supplying electric power to the electric vehicle and receiving electric power from the electric vehicle, a switch mechanism configured to open and close an electrical circuit between the coupler and the power line (90, 91), a failure detector configured to detect an occurrence of a failure of the coupler, a voltage signal transceiver configured to transmit a detection result of the failure detector to the charging-discharging control device through at least one first electric wire of the two or more electric wires other than the power line (90, 91), and a housing which is a connector main body and is provided at an end of the cable and in which the coupler, the switch mechanism, the failure detector and the voltage signal transceiver are housed, the charging-discharging control device being configured to transmit a control signal to the voltage signal transceiver when receiving the detection result of the failure detector, the switch mechanism being configured to open and close the electrical circuit in accordance with the control signal transmitted through the first electric wire.
Thermoplastic composition comprising A) aromatic polycarbonate, B) 0.1 to 5 wt.-% one or more polyether polyols and C) 0.01 to 0.30 wt.-% 3,3'-thiodipropionic acid. A) aromatic polycarbonate, B) 0.1 to 5 wt.-% one or more polyether polyols and C) 0.01 to 0.30 wt.-% 3,3'-thiodipropionic acid.