mhurhangee/ep-ind-claims huggingface dataset:
A shielding arrangement for a piece of high voltage equipment spaced from a neighboring object, where the piece of high voltage equipment has a first electric potential and the neighboring object has a second electric potential, said shielding arrangement comprising a first shield element for connection to the high voltage equipment via a resistor, the shielding arrangement further comprising a capacitor connected in parallel with the resistor, wherein the resistance of the resistor and capacitance of the capacitor together define a time constant t in a range of 10 μs - 50 ms. the shielding arrangement further comprising a capacitor connected in parallel with the resistor, wherein the resistance of the resistor and capacitance of the capacitor together define a time constant t in a range of 10 μs - 50 ms.
A crushed polycrystalline silicon lump, wherein a surface metal concentration is 15.0 pptw or less, and in the surface metal concentration, a surface tungsten concentration is 0.9 pptw or less, and a surface cobalt concentration is 0.3 pptw or less, and the surface metal concentration is a total concentration of Na, Mg, Al, K, Ca, Cr, Fe, Ni, Co, Cu, Zn, W, Ti, and Mo.
A method of using umbilical cord lining stem cells (ULSCs) to produce glycosaminoglycans, the method comprising: a. Propagating ULSCs in a growth media or conditioning media; b. Filtering and concentrating the growth media or conditioning media from step a.; c. Treating the filtered and concentrated growth media or conditioning media from step b. with proteases and nucleases to remove protein and nucleic acid; d. Treating the treated growth media or conditioning media from step c. with a detergent and an alcohol to remove lipids; e. Harvesting glycosaminoglycans from the treated growth media or conditioning media from step d. a. Propagating ULSCs in a growth media or conditioning media; b. Filtering and concentrating the growth media or conditioning media from step a.; c. Treating the filtered and concentrated growth media or conditioning media from step b. with proteases and nucleases to remove protein and nucleic acid; d. Treating the treated growth media or conditioning media from step c. with a detergent and an alcohol to remove lipids; e. Harvesting glycosaminoglycans from the treated growth media or conditioning media from step d.
An immunogenic compound comprising a peptide of the following formula NH 2 -[Nt] y -P-W-N-X 1 -S-X 2 -S-N-X 3 -X 4 -X 5 -X 6 -X 7 -I-W-[Ct] z -COOH, wherein: - y is an integer meaning 0 or 1, - z is an integer meaning 0 or 1, - X 1 is A (Alanine), - X 2 is W (Tryptophane), - X 3 is K (Lysine), - X 4 is S (Serine), - X 5 is L (Leucine), - X 6 is D (Aspartic acid), -X 7 is D (Aspartic acid), - Nt is a peptide of formula below: NH 2 -C-Y 1 -T-Y 2 -V- of SEQ ID N° 3, wherein: - Y 1 is an amino acid selected from the group consisting of T (Threonine) and P (Proline), - Y 2 is an amino acid selected from the group consisting of A (Alanine), T (Threonine) and N (Asparagine), - Ct is a peptide of formula below: -Y 3 -Y 4 -M-T-W-COOH of SEQ ID N° 4, wherein: - Y 3 is an amino acid selected from the group consisting of D (Aspartic acid), Q (Glutamine), E (Glutamic acid) and N (Asparagine), and - Y 4 is an amino acid selected from the group consisting of N (Asparagine), H (Histidine), S (Serine) and K (Lysine), which peptide of formula is covalently linked by conjugation to a carrier protein consisting of a CRM197 protein. - y is an integer meaning 0 or 1, - z is an integer meaning 0 or 1, - X 1 is A (Alanine), - X 2 is W (Tryptophane), - X 3 is K (Lysine), - X 4 is S (Serine), - X 5 is L (Leucine), - X 6 is D (Aspartic acid), -X 7 is D (Aspartic acid), - Nt is a peptide of formula below: NH 2 -C-Y 1 -T-Y 2 -V- of SEQ ID N° 3, wherein: - Y 1 is an amino acid selected from the group consisting of T (Threonine) and P (Proline), - Y 2 is an amino acid selected from the group consisting of A (Alanine), T (Threonine) and N (Asparagine), - Ct is a peptide of formula below: -Y 3 -Y 4 -M-T-W-COOH of SEQ ID N° 4, wherein: - Y 3 is an amino acid selected from the group consisting of D (Aspartic acid), Q (Glutamine), E (Glutamic acid) and N (Asparagine), and - Y 4 is an amino acid selected from the group consisting of N (Asparagine), H (Histidine), S (Serine) and K (Lysine), - Y 1 is an amino acid selected from the group consisting of T (Threonine) and P (Proline), - Y 2 is an amino acid selected from the group consisting of A (Alanine), T (Threonine) and N (Asparagine), - Ct is a peptide of formula below: -Y 3 -Y 4 -M-T-W-COOH of SEQ ID N° 4, wherein: - Y 3 is an amino acid selected from the group consisting of D (Aspartic acid), Q (Glutamine), E (Glutamic acid) and N (Asparagine), and - Y 4 is an amino acid selected from the group consisting of N (Asparagine), H (Histidine), S (Serine) and K (Lysine), - Y 3 is an amino acid selected from the group consisting of D (Aspartic acid), Q (Glutamine), E (Glutamic acid) and N (Asparagine), and - Y 4 is an amino acid selected from the group consisting of N (Asparagine), H (Histidine), S (Serine) and K (Lysine),
A tape for masking a surface to be painted, comprising: an elongate and unitary substrate having a first surface and an opposed second surface; a first adhesive portion disposed on and extending partially across the first surface from a first edge region of the substrate, wherein the first adhesive portion comprises a continuous layer of adhesive extending along the first edge region of the substrate; and a second adhesive portion disposed on the second surface and substantially not opposed to the first adhesive portion such that the first and second adhesive portions do not overlap, characterised in that the first adhesive portion is disposed on around 60-80% of a width of the substrate and the second adhesive portion is disposed on around 20-40% of the width of the substrate, and wherein an adhesive strength of the first adhesive portion is substantially less than an adhesive strength of the second adhesive portion. an elongate and unitary substrate having a first surface and an opposed second surface; a first adhesive portion disposed on and extending partially across the first surface from a first edge region of the substrate, wherein the first adhesive portion comprises a continuous layer of adhesive extending along the first edge region of the substrate; and a second adhesive portion disposed on the second surface and substantially not opposed to the first adhesive portion such that the first and second adhesive portions do not overlap, characterised in that the first adhesive portion is disposed on around 60-80% of a width of the substrate and the second adhesive portion is disposed on around 20-40% of the width of the substrate, and wherein an adhesive strength of the first adhesive portion is substantially less than an adhesive strength of the second adhesive portion.
Method for estimating the state of charge of a battery assembly (20, 22), comprising the steps of - determining the correspondence between the dependency of the state of charge of a battery assembly (20, 22) to the open-circuit voltage of said battery assembly (20, 22) in a training phase for a plurality of different discharge currents, - performing a step of determining a best fit line with the plurality of data sets captured during the training phase, - monitoring the slope of a voltage recovery curve in a resting period of said battery assembly (20, 22), where the battery assembly is neither put in a discharging mode nor in a charging mode and checking if the slope of said voltage recovery curve is below a predefined limit value, - estimating the state of charge of the battery assembly (20, 22) by adding a fixed voltage value ΔU to the momentary open-circuit voltage U t 1 measured for said point in time t1 for which it was found that the slope of said voltage recovery curve is below said predefined limit value; wherein the fixed voltage value ΔU is taken from the training phase, to get the stable open-circuit voltage U t 1 and by looking up, the corresponding state of charge in said best fit line with the resulting stable open-circuit voltage. - determining the correspondence between the dependency of the state of charge of a battery assembly (20, 22) to the open-circuit voltage of said battery assembly (20, 22) in a training phase for a plurality of different discharge currents, - performing a step of determining a best fit line with the plurality of data sets captured during the training phase, - performing a step of determining a best fit line with the plurality of data sets captured during the training phase, - monitoring the slope of a voltage recovery curve in a resting period of said battery assembly (20, 22), where the battery assembly is neither put in a discharging mode nor in a charging mode and checking if the slope of said voltage recovery curve is below a predefined limit value, - estimating the state of charge of the battery assembly (20, 22) by adding a fixed voltage value ΔU to the momentary open-circuit voltage U t 1 measured for said point in time t1 for which it was found that the slope of said voltage recovery curve is below said predefined limit value; wherein the fixed voltage value ΔU is taken from the training phase, to get the stable open-circuit voltage U t 1 and by looking up, the corresponding state of charge in said best fit line with the resulting stable open-circuit voltage.
A combustion apparatus, comprising: a base; a center member having a longitudinal axis and comprising: a body coupled to the base, where at least a portion of the body is substantially cylindrical; a tip integral with the body, where at least a portion of the tip is substantially hemispherical; and a bore concentric with the longitudinal axis of the center member, the bore extending through the body and the tip; and an outer member comprising: a body coupled to the base; a tip integral with the body, where at least a portion of the tip of the center member is farther from the base than the tip of the outer member; and a bore concentric with the longitudinal axis of the center member; where the outer member is positioned such that a channel is defined between the outer member and the center member; whereby the apparatus is configured to: permit fluid to move through the bore of the center member and out of the tip of the center member; and permit fluid to move through the channel and out of the tip of the outer member. a base; a center member having a longitudinal axis and comprising: a body coupled to the base, where at least a portion of the body is substantially cylindrical; a tip integral with the body, where at least a portion of the tip is substantially hemispherical; and a bore concentric with the longitudinal axis of the center member, the bore extending through the body and the tip; and a body coupled to the base, where at least a portion of the body is substantially cylindrical; a tip integral with the body, where at least a portion of the tip is substantially hemispherical; and a bore concentric with the longitudinal axis of the center member, the bore extending through the body and the tip; and an outer member comprising: a body coupled to the base; a tip integral with the body, where at least a portion of the tip of the center member is farther from the base than the tip of the outer member; and a bore concentric with the longitudinal axis of the center member; where the outer member is positioned such that a channel is defined between the outer member and the center member; whereby the apparatus is configured to: permit fluid to move through the bore of the center member and out of the tip of the center member; and permit fluid to move through the channel and out of the tip of the outer member. a body coupled to the base; a tip integral with the body, where at least a portion of the tip of the center member is farther from the base than the tip of the outer member; and a bore concentric with the longitudinal axis of the center member; where the outer member is positioned such that a channel is defined between the outer member and the center member; whereby the apparatus is configured to: permit fluid to move through the bore of the center member and out of the tip of the center member; and permit fluid to move through the channel and out of the tip of the outer member. permit fluid to move through the bore of the center member and out of the tip of the center member; and permit fluid to move through the channel and out of the tip of the outer member.
A gas turbine engine comprising: a first case segment with a first flange; a second case segment with a second flange and a third flange, a first interface defined by the second flange and the first flange; a first multiple of bolts that extend through the first interface; a third case segment with a fourth flange, a second interface defined by the fourth flange and the third flange; a second multiple of bolts that extend through the second interface; and a heat shield assembly that extends at least partially around the first multiple of bolts and the second multiple of bolts, characterised in that the heat shield assembly comprises: a first heat shield ply assembly defined about an axis; and a second heat shield ply assembly defined about the axis, the second heat shield ply assembly receivable at least partially over the first heat shield assembly, wherein the heat shield assembly comprises a band clamp mounted to the second heat shield ply assembly to circumferentially retain the first heat shield ply assembly and the second heat shield ply assembly, and the band clamp includes a spring to permit circumferential movement of the heat shield assembly. a first case segment with a first flange; a second case segment with a second flange and a third flange, a first interface defined by the second flange and the first flange; a first multiple of bolts that extend through the first interface; a third case segment with a fourth flange, a second interface defined by the fourth flange and the third flange; a second multiple of bolts that extend through the second interface; and a heat shield assembly that extends at least partially around the first multiple of bolts and the second multiple of bolts, characterised in that the heat shield assembly comprises: a first heat shield ply assembly defined about an axis; and a second heat shield ply assembly defined about the axis, the second heat shield ply assembly receivable at least partially over the first heat shield assembly, wherein the heat shield assembly comprises a band clamp mounted to the second heat shield ply assembly to circumferentially retain the first heat shield ply assembly and the second heat shield ply assembly, and the band clamp includes a spring to permit circumferential movement of the heat shield assembly. a first heat shield ply assembly defined about an axis; and a second heat shield ply assembly defined about the axis, the second heat shield ply assembly receivable at least partially over the first heat shield assembly, wherein the heat shield assembly comprises a band clamp mounted to the second heat shield ply assembly to circumferentially retain the first heat shield ply assembly and the second heat shield ply assembly, and the band clamp includes a spring to permit circumferential movement of the heat shield assembly.
Hollow cathode plasma source with screening of the regions of the hollow cathode which are not used for plasma production and of the parts which are connected electrically thereto relative to the plasma, the hollow cathode having surfaces which are used for the plasma production, i.e. active surfaces, and surfaces which are not used for the plasma production, i.e. passive surfaces, and the passive surfaces of the hollow cathode being provided at least in regions with a screen made of at least one insulation material layer, or with a screen made of at least one insulation material layer with at least one metallic protective layer, characterised in that, in the edge region of the passive surface, which is adjacent to the active surface, the screen is at a spacing relative to the passive surface with formation of an edge gap.
A tape closure device for securing the neck of a bag with a tape closure during a closure cycle, the tape closure device comprising: an automated control system; a tape feed assembly configured to provide a continuous length of tape; a closure application assembly configured to pull the continuous length of tape from the tape feed assembly and form the tape closure around the neck of the bag during the closure cycle; and a motorized cutting member, wherein the motorized cutting member is connected to the automated control system and configured for selective activation by the automated control system in response to a signal; characterised in that: the closure application assembly includes an encoder wheel that outputs to the automated control system the signal, the signal being representative of the length of tape provided to the closure application assembly from the tape feed assembly during the closure cycle. an automated control system; a tape feed assembly configured to provide a continuous length of tape; a closure application assembly configured to pull the continuous length of tape from the tape feed assembly and form the tape closure around the neck of the bag during the closure cycle; and a motorized cutting member, wherein the motorized cutting member is connected to the automated control system and configured for selective activation by the automated control system in response to a signal; characterised in that: the closure application assembly includes an encoder wheel that outputs to the automated control system the signal, the signal being representative of the length of tape provided to the closure application assembly from the tape feed assembly during the closure cycle. the closure application assembly includes an encoder wheel that outputs to the automated control system the signal, the signal being representative of the length of tape provided to the closure application assembly from the tape feed assembly during the closure cycle.
Sheet-fed printing machine including a sheet feeder, a digital printing unit, a downstream varnishing unit, and a sheet delivery, wherein the varnishing unit includes a varnishing device with at least one varnishing cylinder, further including an acceleration unit disposed between the digital printing unit and the varnishing unit for accelerating sheets from a first transport speed in the digital printing unit to a second transport speed in the varnishing unit, wherein a transport region in the region of the digital printing unit is phase-independent and a transport region in the region of the varnishing unit is phase-dependent, characterized in that the acceleration unit includes a roller pair, wherein a respective sheet is transported between the two rollers of the roller pair and clamped and accelerated in the process.
Method for optimizing the noise generated by a hybrid power plant of a rotorcraft during a phase of flight, said hybrid power plant being provided with at least one heat engine and with at least one electric machine, comprising the following steps: • determination of a required power to be delivered by said hybrid power plant for said phase of flight, and • distribution of said required power between said at least one heat engine and at least one electric machine as a function of an target noise level and of said required power for said phase of flight as well as of a model of the noise generated by said at least one heat engine depending on a parameter of said at least one heat engine, said distribution comprising the following sub-steps: • first control of said at least one electric machine to progressively increase a first supplementary power delivered by said at least one electric machine, and • second control of said at least one heat engine to reduce a main power delivered by said at least one heat engine so that said hybrid power plant delivers said required power, said noise model comprising a decrease zone and if, during said distribution, said main power causes operation of at least one heat engine in said decrease zone, said main power is increased in order to leave said decrease zone and said first supplementary power is reduced so that said hybrid power plant delivers said required power. • determination of a required power to be delivered by said hybrid power plant for said phase of flight, and • distribution of said required power between said at least one heat engine and at least one electric machine as a function of an target noise level and of said required power for said phase of flight as well as of a model of the noise generated by said at least one heat engine depending on a parameter of said at least one heat engine, said distribution comprising the following sub-steps: • first control of said at least one electric machine to progressively increase a first supplementary power delivered by said at least one electric machine, and • second control of said at least one heat engine to reduce a main power delivered by said at least one heat engine so that said hybrid power plant delivers said required power, said noise model comprising a decrease zone and if, during said distribution, said main power causes operation of at least one heat engine in said decrease zone, said main power is increased in order to leave said decrease zone and said first supplementary power is reduced so that said hybrid power plant delivers said required power. • first control of said at least one electric machine to progressively increase a first supplementary power delivered by said at least one electric machine, and • second control of said at least one heat engine to reduce a main power delivered by said at least one heat engine so that said hybrid power plant delivers said required power,
A resin composition comprising a polyvinyl alcohol-based resin containing sulfonic acid or base thereof and a chlorine component, wherein a content of the chlorine component is 0.001 to 0.05 parts by mass in terms of chlorine atom with respect to 100 parts by mass of the polyvinyl alcohol-based resin containing sulfonic acid or base thereof.