mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a controller, the method comprising: receiving a first accumulated thermal value of an electrical machine and an associated first time stamp from a memory defined by a first clock associated with a processor that is communicatively connected to the memory; initializing the processor of the controller with the first accumulated thermal value and the associated first time stamp; determining whether a second time stamp has been received; calculating a difference between the second time stamp and the first time stamp responsive to determining that the second time stamp has been received; calculating a second accumulated thermal value as a function of the first accumulated thermal value, a cooling constant (LTCC) of the electrical machine, the first time stamp, and the second time stamp; and updating the first accumulated thermal value with the second accumulated thermal value. receiving a first accumulated thermal value of an electrical machine and an associated first time stamp from a memory defined by a first clock associated with a processor that is communicatively connected to the memory; initializing the processor of the controller with the first accumulated thermal value and the associated first time stamp; determining whether a second time stamp has been received; calculating a difference between the second time stamp and the first time stamp responsive to determining that the second time stamp has been received; calculating a second accumulated thermal value as a function of the first accumulated thermal value, a cooling constant (LTCC) of the electrical machine, the first time stamp, and the second time stamp; and updating the first accumulated thermal value with the second accumulated thermal value.
A method for reducing halide concentration in a gas stream, the method comprising contacting the gas stream with an active material comprising: (a) one or more first metals, the first metals being selected from the group consisting of copper and iron; and (b) one or more second metals, the one or more second metals being selected from the group consisting of alkali metals; under a set of process conditions, wherein the one or more first metals are each present in a metallic state at the process conditions; and the one or more second metals are each present in a metal oxide and/or metal hydroxide state at the process conditions; and wherein the process conditions include a process temperature in the range of 100 to 300 °C. (a) one or more first metals, the first metals being selected from the group consisting of copper and iron; and (b) one or more second metals, the one or more second metals being selected from the group consisting of alkali metals; the one or more first metals are each present in a metallic state at the process conditions; and the one or more second metals are each present in a metal oxide and/or metal hydroxide state at the process conditions; and wherein
A compound of formula: or a compound selected from the group consisting of: and or a pharmaceutically acceptable salt of the compound; wherein, in the formula: R 1 is OH, CN, NH 2, or selected from the group consisting of C 2-5 alkenyl, C 2-5 heteroalkenyl, C 3-6 cycloalkyl and 3-6 membered heterocycloalkyl, wherein each of the C 2-5 alkenyl, C 2-5 heteroalkenyl, C 3-6 cycloalkyl and 3-6 membered heterocycloalkyl is optionally substituted by 1, 2 or 3 R; m is 0, 1, 2, 3, 4 or 5; and R 1 is not OH, CN, NH 2 provided m is 0; or, R 2 is H, OH, CN, NH 2, halogen, or selected from the group consisting of C 1-3 alkyl, C 1-3 heteroalkyl, C 3-6 cycloalkyl and 3-6 membered heterocycloalkyl, wherein each of the C 1-3 alkyl, C 1-3 heteroalkyl, C 3-6 cycloalkyl and 3-6 membered heterocycloalkyl is optionally substituted by 1, 2 or 3 R; R 3 is selected from the group consisting of C 1-6 alkyl and C 3-6 cycloalkyl, wherein each of the C 1-6 alkyl and C 3-6 cycloalkyl is optionally substituted by 1, 2 or 3 R; R is H, halogen, OH, CN, NH 2, or selected from the group consisting of C 1-3 alkyl and C 1-3 heteroalkyl, wherein each of the C 1-3 alkyl and C 1-3 heteroalkyl is optionally substituted by 1, 2 or 3 R'; R' is selected from the group consisting of F, Cl, Br, I, OH, CN, NH 2, CH 3, CH 3 CH 2, CH 3 O, CF 3, CHF 2 and CH 2 F; the "hetero" refers to heteroatom or heteroatomic group; the "hetero" in the C 2-5 heteroalkenyl, 3-6 membered heterocycloalkyl, C 1-3 heteroalkyl is independently selected from the group consisting of -C(=O)N -, -N -, -C(=NR)-, - C=N-, -S(=O) 2 N -, -S(=O)N -, N, -O-, -S-, =O, =S, - C(=O)O-, -C(=O)-, -C(=S)-, -S(=O)-, -S(=O) 2 - and -N C(=O)N -; in any of the above cases, the number of the heteroatom or the heteroatomic group is independently 1, 2 or 3. m is 0, 1, 2, 3, 4 or 5; and R 1 is not OH, CN, NH 2 provided m is 0; or, R 2 is H, OH, CN, NH 2, halogen, or selected from the group consisting of C 1-3 alkyl, C 1-3 heteroalkyl, C 3-6 cycloalkyl and 3-6 membered heterocycloalkyl, wherein each of the C 1-3 alkyl, C 1-3 heteroalkyl, C 3-6 cycloalkyl and 3-6 membered heterocycloalkyl is optionally substituted by 1, 2 or 3 R; R 3 is selected from the group consisting of C 1-6 alkyl and C 3-6 cycloalkyl, wherein each of the C 1-6 alkyl and C 3-6 cycloalkyl is optionally substituted by 1, 2 or 3 R; R is H, halogen, OH, CN, NH 2, or selected from the group consisting of C 1-3 alkyl and C 1-3 heteroalkyl, wherein each of the C 1-3 alkyl and C 1-3 heteroalkyl is optionally substituted by 1, 2 or 3 R'; R' is selected from the group consisting of F, Cl, Br, I, OH, CN, NH 2, CH 3, CH 3 CH 2, CH 3 O, CF 3, CHF 2 and CH 2 F; the "hetero" refers to heteroatom or heteroatomic group; the "hetero" in the C 2-5 heteroalkenyl, 3-6 membered heterocycloalkyl, C 1-3 heteroalkyl is independently selected from the group consisting of -C(=O)N -, -N -, -C(=NR)-, - C=N-, -S(=O) 2 N -, -S(=O)N -, N, -O-, -S-, =O, =S, - C(=O)O-, -C(=O)-, -C(=S)-, -S(=O)-, -S(=O) 2 - and -N C(=O)N -; in any of the above cases, the number of the heteroatom or the heteroatomic group is independently 1, 2 or 3.
An apparatus for treating a wound at a tissue site, the apparatus comprising: a manifold adapted to provide reduced pressure to the wound; a drape having an adhesive surface for adhering to the tissue site to cover the wound and said manifold; and characterised by a seal (140, 240) adjacent the adhesive surface of said drape, said seal (140, 240) for disposing between said drape and an epidermis surrounding the wound, said seal (140, 240) being transformable to form a sealant (160, 260) substantially filling passages between said drape and the epidermis to reduce air leaking through the passages from outside said drape when said manifold provides reduced pressure to the wound. a manifold adapted to provide reduced pressure to the wound; a drape having an adhesive surface for adhering to the tissue site to cover the wound and said manifold; and characterised by a seal (140, 240) adjacent the adhesive surface of said drape, said seal (140, 240) for disposing between said drape and an epidermis surrounding the wound, said seal (140, 240) being transformable to form a sealant (160, 260) substantially filling passages between said drape and the epidermis to reduce air leaking through the passages from outside said drape when said manifold provides reduced pressure to the wound. a seal (140, 240) adjacent the adhesive surface of said drape, said seal (140, 240) for disposing between said drape and an epidermis surrounding the wound, said seal (140, 240) being transformable to form a sealant (160, 260) substantially filling passages between said drape and the epidermis to reduce air leaking through the passages from outside said drape when said manifold provides reduced pressure to the wound.
A cytometer cartridge insert comprising: a micro-molded component; and a plastic laminate component; wherein the micro-molded component is embedded in the plastic laminate component; wherein the micro-molded component comprises: a sample via comprising a diameter ranging from approximately 20 microns to approximately 100 microns; a measurement channel with an integrated optical lens, the measurement channel coupled to the sample via by way of a lysing and sphering channel, the measurement channel comprising a diameter ranging from approximately 20 microns to approximately 200 microns, the integrated optical lens allowing detection of scatter angles of as large as 90 degrees; a cuvette coupled to the sample via by way of a sample channel, the cuvette comprising an optical mask; and the alignment device comprising a registration surface configured to couple with a registration surface of a manifold of a cytometer; the alignment device being configured to align the integrated optical lens with a light source and a light detector and configured to align the integrated optical lens with the measurement channel such that an illumination beam on the measurement channel walls generate light scatter having a same group of angles as the illumination beam such that the walls of the measurement channel do not produce random scatter noise. a micro-molded component; and a plastic laminate component; a sample via comprising a diameter ranging from approximately 20 microns to approximately 100 microns; a measurement channel with an integrated optical lens, the measurement channel coupled to the sample via by way of a lysing and sphering channel, the measurement channel comprising a diameter ranging from approximately 20 microns to approximately 200 microns, the integrated optical lens allowing detection of scatter angles of as large as 90 degrees; a cuvette coupled to the sample via by way of a sample channel, the cuvette comprising an optical mask;
A method for a transmitter apparatus configured to transmit signals to a receiver apparatus using a transmission beam selected from a plurality of available transmission beams, wherein the receiver apparatus is configured to receive the signals using a reception beam selected from a plurality of available reception beams, and wherein a set of the available transmission beams and a set of the available reception beams are for beam selection measurements by the receiver apparatus, the method comprising: determining a collection of linear combinations of transmission beams of the set of the available transmission beams; determining a collection of linear combinations of reception beams of the set of available reception beams; providing an indication of the collection of linear combinations of reception beams to the receiver apparatus; and transmitting each of the linear combinations of transmission beams of the collection of linear combinations of transmission beams for beam selection measurements by the receiver apparatus. determining a collection of linear combinations of transmission beams of the set of the available transmission beams; determining a collection of linear combinations of reception beams of the set of available reception beams; providing an indication of the collection of linear combinations of reception beams to the receiver apparatus; and transmitting each of the linear combinations of transmission beams of the collection of linear combinations of transmission beams for beam selection measurements by the receiver apparatus.
Nozzle for an extruder, composed of a core and a housing (2, 3) which is in at least two parts and comprises a stationary housing main body and a housing end part at which the flowable compound exits the nozzle, wherein the housing (2, 3) encloses the core such that a flow duct through which a flowable compound can be delivered is present between the core and the housing (2, 3), wherein the flow duct in the separation region between the housing main body and the adjoining housing end part is sealed by means of an elastically deformable seal, wherein the housing main body includes a clearance having an inner diameter which receives the seal and the upstream end of the housing end part, and wherein a rubber which is resistant to temperatures in excess of 150°, in particular a perfluoro elastomer or a silicone rubber, is used as a material for the elastic seal, and the upstream end of the housing end part is mounted on this seal so as to be tiltable in any arbitrary direction, characterized in that in the separation region a tight fit exists between the maximum outer diameter of a concave geometry of the upstream end of the housing end part and the inner diameter of the clearance of the housing main body, which is present in the separation region.
Process for the non-oxidative preparation of dimethoxymethane from methanol in the presence of a heterogeneous catalyst, by contacting gaseous methanol with the catalyst, characterized in that the catalyst is a bifunctional catalyst comprising: a) molybdenum sulfide, or b) - a metal or a metal compound selected from the group encompassing copper, silver, platinum and/or molybdenum sulfide, and - an aluminosilicate, preferably a zeolite, or a metal oxide selected from the group encompassing titanium oxide, zirconium oxide and/or aluminium oxide. a) molybdenum sulfide, or b) - a metal or a metal compound selected from the group encompassing copper, silver, platinum and/or molybdenum sulfide, and - an aluminosilicate, preferably a zeolite, or a metal oxide selected from the group encompassing titanium oxide, zirconium oxide and/or aluminium oxide. - a metal or a metal compound selected from the group encompassing copper, silver, platinum and/or molybdenum sulfide, and - an aluminosilicate, preferably a zeolite, or a metal oxide selected from the group encompassing titanium oxide, zirconium oxide and/or aluminium oxide.
A mineral fibre insulating board having a density in the range 100-200 kg/m 3 comprising mineral fibres and an organic, formaldehyde free binder based on a reducing sugar and having: a) an Ordinary Compression Strength of at least 60 kPa; and b) a Weathered Compression Strength of at least 25 kPa; and c) a change in thickness of less than 6% after autoclave. a) an Ordinary Compression Strength of at least 60 kPa; and b) a Weathered Compression Strength of at least 25 kPa; and c) a change in thickness of less than 6% after autoclave.
A transmission power control method for a mobile station that receives F-DCPH symbols and CPICH symbols from a base station, comprising steps of: preparing a plurality of target error rate/target SIR conversion tables (73, 73a-c) according to values of ISCP error; averaging a plurality of CPICH symbols in a time sequence before a certain time of interest and estimating a channel, then calculating a interference power ISCP using the obtained channel estimation value and the CPICH symbol at the time of interest (201, 202); averaging a plurality of CPICH symbols in a time sequence that include the CPICH symbol at the time of interest and estimating a channel, then calculating a reference ISCP using the obtained channel estimation value and the CPICH symbol at the time of interest (203, 204); computing a difference between the interference power ISCP and the reference ISCP as a value of ISCP error; selecting a target error rate/target SIR conversion table based on the computed value of ISCP error; acquiring a target SIR that corresponds to a target error rate using the selected conversion table; calculating an SIR using a reception power RSCP and an interference power ISCP at the next time of interest (56, 211); and generating transmission power information based on the size of the calculated SIR and said target SIR, then sending that transmission power information to the base station (74, 77-79). preparing a plurality of target error rate/target SIR conversion tables (73, 73a-c) according to values of ISCP error; averaging a plurality of CPICH symbols in a time sequence before a certain time of interest and estimating a channel, then calculating a interference power ISCP using the obtained channel estimation value and the CPICH symbol at the time of interest (201, 202); averaging a plurality of CPICH symbols in a time sequence that include the CPICH symbol at the time of interest and estimating a channel, then calculating a reference ISCP using the obtained channel estimation value and the CPICH symbol at the time of interest (203, 204); computing a difference between the interference power ISCP and the reference ISCP as a value of ISCP error; selecting a target error rate/target SIR conversion table based on the computed value of ISCP error; acquiring a target SIR that corresponds to a target error rate using the selected conversion table; calculating an SIR using a reception power RSCP and an interference power ISCP at the next time of interest (56, 211); and generating transmission power information based on the size of the calculated SIR and said target SIR, then sending that transmission power information to the base station (74, 77-79).
A multi-carrier communication system, comprising: a plurality of communication signal sources each providing a band limited communication signal; a plurality of frequency converters for offsetting the frequency of the plural band limited communication signals; a first combiner for combining the plural frequency offset band limited communication signals to form a band limited multi-carrier communication signal; and a peak reduction unit coupled to receive said band limited multi-carrier communication signal and provide a band limited peak reduced multi-carrier output signal (S'), the peak reduction unit comprising: a peak reduction calculation circuit (140, 150, 180, 190) for providing a peak reduction correction signal (V C) based on the amount of the multi-carrier communication signal which exceeds a threshold signal peak limit value, a plurality of correction filters for filtering the peak reduction correction signal and providing a plurality of band limited peak reduction correction signals, and a second combiner (172, 130) for combining the delayed band limited multi-carrier communication signal and said plurality of band limited peak reduction correction signals to provide a peak reduced multi-carrier output signal, (S') band limited in plural bands. a plurality of communication signal sources each providing a band limited communication signal; a plurality of frequency converters for offsetting the frequency of the plural band limited communication signals; a first combiner for combining the plural frequency offset band limited communication signals to form a band limited multi-carrier communication signal; and a peak reduction unit coupled to receive said band limited multi-carrier communication signal and provide a band limited peak reduced multi-carrier output signal (S'), the peak reduction unit comprising: a peak reduction calculation circuit (140, 150, 180, 190) for providing a peak reduction correction signal (V C) based on the amount of the multi-carrier communication signal which exceeds a threshold signal peak limit value, a plurality of correction filters for filtering the peak reduction correction signal and providing a plurality of band limited peak reduction correction signals, and a second combiner (172, 130) for combining the delayed band limited multi-carrier communication signal and said plurality of band limited peak reduction correction signals to provide a peak reduced multi-carrier output signal, (S') band limited in plural bands. a peak reduction calculation circuit (140, 150, 180, 190) for providing a peak reduction correction signal (V C) based on the amount of the multi-carrier communication signal which exceeds a threshold signal peak limit value, a plurality of correction filters for filtering the peak reduction correction signal and providing a plurality of band limited peak reduction correction signals, and a second combiner (172, 130) for combining the delayed band limited multi-carrier communication signal and said plurality of band limited peak reduction correction signals to provide a peak reduced multi-carrier output signal, (S') band limited in plural bands.
A method for estimating whether a female is pregnant, said method comprising: - measuring allele presences for a plurality of genetic markers of at least one chromosome, different from the X and Y chromosome, in a sample of cell-free DNA from a potentially pregnant female; each allele presence representing the presence at a genetic marker of at least one of: a reference allele of maternal or foetal origin, and an alternative allele of maternal or foetal origin; - based on said measured allele presences, determining a homozygous fraction (F ho) thereof which is associated with purely homozygous genetic markers; and - estimating whether the female is pregnant based on said fraction, wherein the homozygous fraction is larger for samples of non-pregnant females than for samples of pregnant females. - measuring allele presences for a plurality of genetic markers of at least one chromosome, different from the X and Y chromosome, in a sample of cell-free DNA from a potentially pregnant female; each allele presence representing the presence at a genetic marker of at least one of: a reference allele of maternal or foetal origin, and an alternative allele of maternal or foetal origin; - based on said measured allele presences, determining a homozygous fraction (F ho) thereof which is associated with purely homozygous genetic markers; and - estimating whether the female is pregnant based on said fraction, wherein the homozygous fraction is larger for samples of non-pregnant females than for samples of pregnant females.
Method of production of an annealed cold-rolled non grain-oriented Fe-Si steel sheet consisting of the successive following steps: - melting a steel composition that contains in weight percentage: C ≤ 0.006 2.0 ≤ Si ≤ 5.0 0.1 ≤ Al ≤ 3.0 0.1 ≤ Mn ≤ 3.0 N ≤ 0.006 0.04 ≤ Sn ≤ 0.2 S ≤ 0.005 P ≤ 0.2 Ti ≤ 0.01 the balance being Fe and inevitable impurities - casting said melt into a slab - reheating said slab at a temperature between 1050°C and 1250°C - hot rolling said slab with a hot rolling finishing temperature between 750°C and 950°C to obtain a hot rolled steel band, the thickness of the hot rolled steel band varying from 1.5 mm to 3 mm, - coiling said hot rolled steel band at a temperature between 500°C and 750°C, - said hot rolled steel band being annealed at a temperature between 650°C and 950°C for a time between 10s and 48 hours - cold rolling the hot rolled steel band to obtain a cold rolled steel sheet - heating the cold rolled steel sheet up to a soaking temperature between 850°C and 1150°C - holding the cold rolled steel at the soaking temperature for a time between 20s and 100s - cooling the cold rolled steel down to room. - melting a steel composition that contains in weight percentage: C ≤ 0.006 2.0 ≤ Si ≤ 5.0 0.1 ≤ Al ≤ 3.0 0.1 ≤ Mn ≤ 3.0 N ≤ 0.006 0.04 ≤ Sn ≤ 0.2 S ≤ 0.005 P ≤ 0.2 Ti ≤ 0.01 the balance being Fe and inevitable impurities C ≤ 0.006 2.0 ≤ Si ≤ 5.0 0.1 ≤ Al ≤ 3.0 0.1 ≤ Mn ≤ 3.0 N ≤ 0.006 0.04 ≤ Sn ≤ 0.2 S ≤ 0.005 P ≤ 0.2 Ti ≤ 0.01 the balance being Fe and inevitable impurities - casting said melt into a slab - reheating said slab at a temperature between 1050°C and 1250°C - hot rolling said slab with a hot rolling finishing temperature between 750°C and 950°C to obtain a hot rolled steel band, the thickness of the hot rolled steel band varying from 1.5 mm to 3 mm, - coiling said hot rolled steel band at a temperature between 500°C and 750°C, - said hot rolled steel band being annealed at a temperature between 650°C and 950°C for a time between 10s and 48 hours - cold rolling the hot rolled steel band to obtain a cold rolled steel sheet - heating the cold rolled steel sheet up to a soaking temperature between 850°C and 1150°C - holding the cold rolled steel at the soaking temperature for a time between 20s and 100s - cooling the cold rolled steel down to room.