mhurhangee/ep-ind-claims huggingface dataset:
An automated method for evaluating voxels of magnetic resonance imaging data corresponding to anomalous material comprising iron compounds within tissue, the method comprising: obtaining (40; 60, 62) MRI data representing a tissue of a patient; identifying (42; 64) individual voxels of the MRI data, wherein each individual voxel represents a defined volume of the tissue of the patient and wherein the MRI data comprises, for each individual voxel, a time series of MRI signal values; identifying (44; 66) multiple parameters of each individual voxel, wherein the multiple parameters include at least one of a T1 time constant, a T2 time constant, or a T2* time constant of that individual voxel, and a difference between at least one time constant of that individual voxel under consideration and corresponding time constants of one or more immediately adjacent voxels, the difference for that individual voxel being evaluated in a form of an average of cross correlations of that individual voxel with the one or more immediately adjacent voxels, each of the cross-correlations being based on a temporal signal of that individual voxel under consideration and at least one of the one or more immediately adjacent voxels; and determining, for each of the individual voxels if that individual voxel represents tissue including anomalous material comprising iron compounds by determining (46; 70-74), based upon the multiple parameters, a likelihood that there is a magnetic iron compound in the tissue represented by that individual voxel under consideration. obtaining (40; 60, 62) MRI data representing a tissue of a patient; identifying (42; 64) individual voxels of the MRI data, wherein each individual voxel represents a defined volume of the tissue of the patient and wherein the MRI data comprises, for each individual voxel, a time series of MRI signal values; identifying (44; 66) multiple parameters of each individual voxel, wherein the multiple parameters include at least one of a T1 time constant, a T2 time constant, or a T2* time constant of that individual voxel, and a difference between at least one time constant of that individual voxel under consideration and corresponding time constants of one or more immediately adjacent voxels, the difference for that individual voxel being evaluated in a form of an average of cross correlations of that individual voxel with the one or more immediately adjacent voxels, each of the cross-correlations being based on a temporal signal of that individual voxel under consideration and at least one of the one or more immediately adjacent voxels; and determining, for each of the individual voxels if that individual voxel represents tissue including anomalous material comprising iron compounds by determining (46; 70-74), based upon the multiple parameters, a likelihood that there is a magnetic iron compound in the tissue represented by that individual voxel under consideration.
A vertical combined shredding and mixing truck, adapted to shred fibrous products such as hay or straw gathered in cylindrical or prism-shaped bales and to mix them with ensiled and farinaceous products to provide the mechanized feeding of dairy cows and fattening cows, comprising, within an outer enclosure which extends from a base and is open at the top, at least one vertical motorized screw feeder, which is provided with applied blades and an outlet for discharging the mixed product, and at least one device which comprises an idle rotor which is provided with tools adapted to come into contact with the product being processed and is integral with the at least one screw feeder, said at least one idle rotor device protruding from the outer edge of said screw feeder at the initial portion of the screw feeder at the base of the outer enclosure of said screw feeder, characterized in that the idle rotor is integral with the at least one screw feeder, having a horizontal axis.
A plate press, in particular a one-level or multilevel cycle press, comprising at least one heating plate, at least one press plate and at least one press cushion which is disposed between the press plate and the heating plate and has at least one cushion layer which is liquid at least at the operating of the plate press and which is defined on one side by a fluid-tight membrane, wherein the press plate is situated on a side facing a press blank and wherein the membrane is situated on a side opposite the press plate and includes a flexible polymer material, in particular an elastomer material, preferably a silicone, fluorine or a silicone-fluorine mix elastomer, or a fluorine-tetra-polymer, characterized in that the membrane and the press plate are circumferentially connected to one another, namely glued or presses together, in a fluid-tight manner in edge strips, each of which protrudes beyond a circumference of the heating plate.
A compound, which is a trans-2-decenoic acid derivative of formula or a pharmaceutically acceptable salt thereof: wherein Y' is -O-, and W' is dialkylaminoalkyl, alkylthioalkyl, alkoxyalkyl, dialkoxyalkyl or dialkylaminoalkoxyalkyl; or Y' is -NR'-, and (a) W' is H, alkyl or dialkylaminoalkyl, and R' is dialkylaminoalkyl; or (b) W' and R' each independently are alkyl, with the proviso that W' and R' are not both ethyl; or (c) W' is alkyl (except 2-methylpropyl and 2-methylbutyl), cyclohexyl or pyrrolidinealkyl, and R' is H; or Y' is -S-, and W' is alkyl, cycloalkyl, phenylalkyl or dialkylaminoalkyl. Y' is -O-, and W' is dialkylaminoalkyl, alkylthioalkyl, alkoxyalkyl, dialkoxyalkyl or dialkylaminoalkoxyalkyl; or W' is dialkylaminoalkyl, alkylthioalkyl, alkoxyalkyl, dialkoxyalkyl or dialkylaminoalkoxyalkyl; or Y' is -NR'-, and (a) W' is H, alkyl or dialkylaminoalkyl, and R' is dialkylaminoalkyl; or (b) W' and R' each independently are alkyl, with the proviso that W' and R' are not both ethyl; or (c) W' is alkyl (except 2-methylpropyl and 2-methylbutyl), cyclohexyl or pyrrolidinealkyl, and R' is H; or (a) W' is H, alkyl or dialkylaminoalkyl, and R' is dialkylaminoalkyl; or (b) W' and R' each independently are alkyl, with the proviso that W' and R' are not both ethyl; or (c) W' is alkyl (except 2-methylpropyl and 2-methylbutyl), cyclohexyl or pyrrolidinealkyl, and R' is H; or Y' is -S-, and W' is alkyl, cycloalkyl, phenylalkyl or dialkylaminoalkyl. W' is alkyl, cycloalkyl, phenylalkyl or dialkylaminoalkyl.
A compound comprising cinacalcet covalently attached via a releasable linkage to a poly(alkylene oxide) oligomer, wherein the linkage contains one or more amino acids.
A steel sheet, comprising: a chemical composition represented by, in mass%, C: 0.05% to 0.40%, Si: 0.05% to 3.0%, Mn: 1.5% to 4.0%, Al: 1.5% or less, N: 0.02% or less, P: 0.2% or less, S: 0.01% or less, Nb and Ti: 0.005% to 0.2% in total, V and Ta: 0.0% to 0.3% in total, Cr, Mo, Ni, Cu, and Sn: 0.0% to 1.0% in total, B: 0.00% to 0.01%, Ca: 0.000% to 0.005%, Ce: 0.000% to 0.005%, La: 0.000% to 0.005%, and the balance: Fe and impurities; and a steel structure containing, in area fraction, 2% or more in total of ferrite and bainite, wherein an average dislocation density in the ferrite and an average dislocation density in the bainite are both 3 × 10 12 m/m 3 to 1 × 10 14 m/m 3, an average grain diameter of the ferrite and the bainite is 5 μ m or less and a value of the parameter P 1 is 0.27 or less which is expressed by (Expression 1) wherein "YS BH5 " is a yield strength (MPa) after aging in the case of a 5%-tensile prestrain being applied, "YS BH0 " is a yield strength (MPa) after aging in the case of no tensile prestrain being applied, and "TS" is the maximum tensile strength (MPa) wherein the temperature of the aging is 170°C, and its time period is two hours P 1 = YS BH 5 − YS BH 0 / TS a chemical composition represented by, in mass%, C: 0.05% to 0.40%, Si: 0.05% to 3.0%, Mn: 1.5% to 4.0%, Al: 1.5% or less, N: 0.02% or less, P: 0.2% or less, S: 0.01% or less, Nb and Ti: 0.005% to 0.2% in total, V and Ta: 0.0% to 0.3% in total, Cr, Mo, Ni, Cu, and Sn: 0.0% to 1.0% in total, B: 0.00% to 0.01%, Ca: 0.000% to 0.005%, Ce: 0.000% to 0.005%, La: 0.000% to 0.005%, and the balance: Fe and impurities; and a steel structure containing, in area fraction, 2% or more in total of ferrite and bainite, wherein an average dislocation density in the ferrite and an average dislocation density in the bainite are both 3 × 10 12 m/m 3 to 1 × 10 14 m/m 3, an average grain diameter of the ferrite and the bainite is 5 μ m or less and a value of the parameter P 1 is 0.27 or less which is expressed by (Expression 1) wherein "YS BH5 " is a yield strength (MPa) after aging in the case of a 5%-tensile prestrain being applied, "YS BH0 " is a yield strength (MPa) after aging in the case of no tensile prestrain being applied, and "TS" is the maximum tensile strength (MPa) wherein the temperature of the aging is 170°C, and its time period is two hours P 1 = YS BH 5 − YS BH 0 / TS
A method performed by an apparatus at a base station, the method comprising: configuring two or more user equipments for uplink transmission with one or more uplink time-frequency regions for enhanced machine type communication, wherein the one or more uplink time-frequency regions are assigned to two or more non-adjacent coverage regions dependent on received power levels at the two or more user equipments, wherein the configuring is based on defining and signaling one or more thresholds and parameters for the one or more uplink time-frequency resource regions respectively associated with the one or more thresholds, the parameters for the one or more uplink time-frequency resource regions comprising one or more of: a resource assignment, a starting subframe periodicity, a starting subframe offset, a time duration in each period, a demodulation reference signal cyclic shift assignment, orthogonal cover code assignment, and interleaver assignment, wherein the one or more thresholds comprise criteria for a user equipment to use the associated one or more uplink time-frequency resource regions for uplink communications, the criteria enabling the two or more user equipments with different coverage areas to select the same or partially overlapping uplink time-frequency resource region(s) for uplink transmission; and receiving uplink transmissions from the two or more user equipments in accordance with the configuring. configuring two or more user equipments for uplink transmission with one or more uplink time-frequency regions for enhanced machine type communication, wherein the one or more uplink time-frequency regions are assigned to two or more non-adjacent coverage regions dependent on received power levels at the two or more user equipments, wherein the configuring is based on defining and signaling one or more thresholds and parameters for the one or more uplink time-frequency resource regions respectively associated with the one or more thresholds, the parameters for the one or more uplink time-frequency resource regions comprising one or more of: a resource assignment, a starting subframe periodicity, a starting subframe offset, a time duration in each period, a demodulation reference signal cyclic shift assignment, orthogonal cover code assignment, and interleaver assignment, wherein the one or more thresholds comprise criteria for a user equipment to use the associated one or more uplink time-frequency resource regions for uplink communications, the criteria enabling the two or more user equipments with different coverage areas to select the same or partially overlapping uplink time-frequency resource region(s) for uplink transmission; and receiving uplink transmissions from the two or more user equipments in accordance with the configuring.
Emulsion comprising a (1→3)-β-D-glucan, a cationic emulsifier and a bituminous binder having a penetration of less than 70.10 -1 mm and more than 10.10 -1 mm according to ASTM D5-97, wherein the (1→3)-β-D-glucan is used in admixture with an oil, wherein the amount of the (1→3)-β-D-glucan in the emulsion is 0.0005 wt.% to 0.1 wt.% and wherein the amount of the cationic emulsifier is 0.01 wt.% to 20 wt.%, based on the total weight of the emulsion, provided that emulsions according to Examples 4, 5, 6, 7 and 8 of WO 2009/113854 are excluded, wherein the (1→3)-β-D-glucan is scleroglucan, and wherein the cationic emulsifier is: (a) derived from amines having the formula: R-NH-(C m H 2m -NH) p -(C n H 2n)-NH 2 wherein R is a C 1 -C 30 aliphatic group, m is an integer in the range from 1 to 8, p is an integer in the range of 0 to 6, and n is an integer in the range of 1-8; or (b) derived from amidoamines having the formula: R-C NH-(C m H 2m -NH) p -(C n H 2n)-NH 2 wherein R is a C 1 -C 30 aliphatic group, m is an integer in the range from 1 to 8, p is an integer in the range of 0 to 6, and n is an integer in the range of 1-8. (a) derived from amines having the formula: R-NH-(C m H 2m -NH) p -(C n H 2n)-NH 2 wherein R is a C 1 -C 30 aliphatic group, m is an integer in the range from 1 to 8, p is an integer in the range of 0 to 6, and n is an integer in the range of 1-8; or (b) derived from amidoamines having the formula: R-C NH-(C m H 2m -NH) p -(C n H 2n)-NH 2
A TOF-PET tomography insert comprising a plurality of detection modules, each detection module comprising a scintillator stripe connected, at each end, to a photoelectric converter to convert light signals from the scintillator stripe to electric signals, and further connected to an electronic signal processing circuit protected by a housing, equipped with an electronic signal processing unit and with a computer having a software for steering the electronic signal processing unit, and a software for reconstruction and preserving the image, characterised in that the detection modules are made entirely of a non-magnetic material, and that each detection module is equipped, at each end, with a liquid marker that is visible in an MRI image, wherein the tomography TOF-PET insert is equipped with a liquid marker device that is visible in the MRI image, and each detection module is equipped with coupling elements (10, 11) for detachable connection of adjacent detection modules.
A method for safeguarding a movable machine part of a machine, in particular a robot arm, wherein at least a part of the movable machine part is safeguarded by a protective mantle, i.e. a surface that forms a safety-relevant access area to the movable machine part, in that, when an object enters the protective mantle, a safety-related reaction of the machine is initiated, the protective mantle being generated by at least one non-contact distance sensor that is moved along with the machine part and that measures a plurality of distance values by means of a plurality of measuring beams, and wherein the geometry of the protective mantle is determined by the origin and orientation of the measuring beams as well as distance thresholds for the respective measuring beams, characterized in that the protective mantle is adapted by changing the origin and/or orientation of the measuring beams by activating other measuring beams and/or by transversely moving or pivoting at least one distance sensor as a whole or a part thereof, that generates at least one measuring beam, with respect to a reference system moved along with the machine part.
A baby carrier (1;1';1") comprising chest straps (11;11'), which are mutually adapted to extend around both shoulders of the wearer and connected to each other, a waist belt (12;12') and a carrier bag (14;14') mounted to the chest straps and the waist belt, the carrier bag comprises a front piece (16;16'), a lower portion (20;20') of the front piece is connected to the waist belt, characterized in that the connection between the chest straps (11;11') is adapted to be achieved by a means (30;30'), that said means (30;30') is in the form of a flexible strap, is formed in one piece that is non-detachable from either of the chest straps (11;11') and non-separable into two parts by any type of detachable means and is adjustably arranged along at least a part of the length of respective chest straps (11;11'), and that a second part (12;112') of respective chest strap (11;11') is connected to a middle portion (26;26') of the front piece (16;16') so as to permit the baby carrier to be rotated around an upper part of the body of a wearer so as to move the baby carrier between a chest side and a back side of the wearer and vice versa while the child is sitting in the baby carrier, whereby, during one step of the rotation of the baby carrier, the means (30;30') extends over one shoulder of the wearer and carries the weight which in the normal case is carried by the chest straps.
A drive protection method used in a drive circuit of a DC motor, said DC motor having a maximum tolerance value, wherein the drive protection method comprises the steps of: providing a control signal (S C) and a drive current, said control signal (S C) being adapted for controlling the output level of said drive current, said drive current being adapted for driving said DC motor; providing a maximum signal level (V M) corresponding to said maximum tolerance value of said DC motor; comparing a level of a feedback signal (S F) of said DC motor and said maximum signal level (V M); and triggering a heavy load operation when the level of said feedback signal (S F) exceeds said maximum signal level (V M), said heavy load work comprises said drive current traces said maximum tolerated value by said feedback signal (S F), and computing said feedback signal (S F) to obtain an operation signal (S FI), and then stopping the output of said control signal (S C) when a level of said operation signal (S FI) reaches a turn-off level (V O). providing a control signal (S C) and a drive current, said control signal (S C) being adapted for controlling the output level of said drive current, said drive current being adapted for driving said DC motor; providing a maximum signal level (V M) corresponding to said maximum tolerance value of said DC motor; comparing a level of a feedback signal (S F) of said DC motor and said maximum signal level (V M); and triggering a heavy load operation when the level of said feedback signal (S F) exceeds said maximum signal level (V M), said heavy load work comprises said drive current traces said maximum tolerated value by said feedback signal (S F), and computing said feedback signal (S F) to obtain an operation signal (S FI), and then stopping the output of said control signal (S C) when a level of said operation signal (S FI) reaches a turn-off level (V O).
Impregnated raw abrasive paper produced from unrefined, or only slightly refined, fibres and having a grammage of from 110 to 360 g/m 2, characterised in that the raw abrasive paper is partially sized by means of a synthetic sizing agent, the amount of sizing agent added being between 0.5 % and 3.0 %, based on the dry fibres, such that the raw abrasive paper has a capillary rise in the longitudinal direction of from 2 mm to 70 mm, and in that the raw abrasive paper is impregnated with an aqueous impregnating agent, the impregnated raw abrasive paper having a tensile stiffness index in the longitudinal direction of from 2.0 MNm/kg to 7.0 MNm/kg and a modulus of elasticity in the longitudinal direction of from 2000 to 5500 MPa.
A method for determining the probability of an electroencephalogram pattern within an EEG of a subject having occurred in sections of EEG reference files scored by one or more expert technologists or by automatic scoring software as awake, arousals or asleep, said method employing a computer/microprocessor that: • performs frequency domain analysis of one or more discrete sections of the EEG to determine either EEG power, EEG signal amplitude or EEG signal strength at specified frequencies, • calculates either EEG power, EEG signal amplitude or EEG signal strength over specified frequency ranges, • assigns, for each specified frequency range, a rank to the calculated EEG power, EEG signal amplitude or EEG signal strength in each discrete section of the specified frequency range, each rank being determined based on values of EEG power, EEG signal amplitude or EEG signal strength encountered in a plurality of the EEG reference files, • assigns a code to each discrete section that reflects the ranking of the calculated EEG powers, EEG signal amplitudes or EEG signal strengths in the specified frequency ranges, a • determines, for each assigned code, the probability indicated in a table that corresponds to the assigned code, the table constructed from EEG reference files that indicates the probability of each code having occurred in sections of the EEG reference files, and • reports the determined probabilities that reflect the probability of the EEG pattern within the EEG of the subject having occurred in sections of EEG reference files. • performs frequency domain analysis of one or more discrete sections of the EEG to determine either EEG power, EEG signal amplitude or EEG signal strength at specified frequencies, • calculates either EEG power, EEG signal amplitude or EEG signal strength over specified frequency ranges, • assigns, for each specified frequency range, a rank to the calculated EEG power, EEG signal amplitude or EEG signal strength in each discrete section of the specified frequency range, each rank being determined based on values of EEG power, EEG signal amplitude or EEG signal strength encountered in a plurality of the EEG reference files, • assigns a code to each discrete section that reflects the ranking of the calculated EEG powers, EEG signal amplitudes or EEG signal strengths in the specified frequency ranges, a • determines, for each assigned code, the probability indicated in a table that corresponds to the assigned code, the table constructed from EEG reference files that indicates the probability of each code having occurred in sections of the EEG reference files, and • reports the determined probabilities that reflect the probability of the EEG pattern within the EEG of the subject having occurred in sections of EEG reference files.
A method for managing a congestion in a communication network, said network supporting the transmission of a number of multicast data flows, said method comprising, upon detection of a congestion at a transmission interface (IF, IF1, IF2, IF3) of a router of said network, at said router: a) identifying a multicast data flow being forwarded through said transmission interface (IF, IF1, IF2, IF3) and suffering a packet loss; b) interrupting the transmission of said data flow through said transmission interface (IF, IF1, IF2, IF3) downstream the router and, in case said data flow would be transmitted downstream the router trough said transmission interface (IF, IF1, IF2, IF3) only, sending a request to an upstream router for interrupting the transmission of said data flow from said upstream router to said router; and c) inhibiting, for a given period of time, any request to forward said data flow via said transmission interface (IF1, IF2, IF3). a) identifying a multicast data flow being forwarded through said transmission interface (IF, IF1, IF2, IF3) and suffering a packet loss; b) interrupting the transmission of said data flow through said transmission interface (IF, IF1, IF2, IF3) downstream the router and, in case said data flow would be transmitted downstream the router trough said transmission interface (IF, IF1, IF2, IF3) only, sending a request to an upstream router for interrupting the transmission of said data flow from said upstream router to said router; and c) inhibiting, for a given period of time, any request to forward said data flow via said transmission interface (IF1, IF2, IF3).