mhurhangee/ep-ind-claims huggingface dataset:
A multilayer structure comprising: a single crystal silicon wafer handle substrate comprising two major, generally parallel surfaces, one of which is a front surface of the single crystal silicon wafer handle substrate and the other of which is a back surface of the single crystal silicon wafer handle substrate, a circumferential edge joining the front and back surfaces of the single crystal silicon wafer handle substrate, and a central plane of the single crystal silicon wafer handle substrate between the front and back surfaces of the single crystal silicon wafer handle substrate, wherein the single crystal silicon wafer handle substrate has a bulk resistivity of at least about 5000 ohm-cm; a trap rich layer in interfacial contact with the front surface of the single crystal silicon wafer handle substrate; a dielectric layer in interfacial contact with the trap rich layer; and a single crystal semiconductor device layer in interfacial contact with the dielectric layer; characterised in that the single crystal silicon wafer handle substrate comprises a silicon wafer sliced from a single crystal silicon ingot grown by the float zone method, and that the single crystal silicon wafer handle substrate has an interstitial oxygen concentration of less than about 1×10 16 atoms/cm 3, and a nitrogen concentration of at least about 0.5×10 14 atoms/cm 3 and less than about 3×10 14 atoms/cm 3. a single crystal silicon wafer handle substrate comprising two major, generally parallel surfaces, one of which is a front surface of the single crystal silicon wafer handle substrate and the other of which is a back surface of the single crystal silicon wafer handle substrate, a circumferential edge joining the front and back surfaces of the single crystal silicon wafer handle substrate, and a central plane of the single crystal silicon wafer handle substrate between the front and back surfaces of the single crystal silicon wafer handle substrate, wherein the single crystal silicon wafer handle substrate has a bulk resistivity of at least about 5000 ohm-cm; a trap rich layer in interfacial contact with the front surface of the single crystal silicon wafer handle substrate; a dielectric layer in interfacial contact with the trap rich layer; and a single crystal semiconductor device layer in interfacial contact with the dielectric layer; characterised in that the single crystal silicon wafer handle substrate comprises a silicon wafer sliced from a single crystal silicon ingot grown by the float zone method, and that the single crystal silicon wafer handle substrate has an interstitial oxygen concentration of less than about 1×10 16 atoms/cm 3, and a nitrogen concentration of at least about 0.5×10 14 atoms/cm 3 and less than about 3×10 14 atoms/cm 3.
A parallel line biochip for multiplex diagnosis having a plurality of line strips disposed in parallel; and characterized in that the biochip comprises a well configured to immobilize the line strips.
A peptide of sixteen to eighteen amino acids comprising a sequence of: X 4 X 5 X 6 X 7 X 8 X 9 X 10 X 11 X 12 X 13 X 14 X 15 X 16 X 17 X 18 X 19 X 20 (SEQ ID NO: 42), wherein: X 4 is G; X 5 is L; X 6 is D, E, or H; X 7 is E or H; X 8 is N or D; X 9 is S, T, H, R, or K; X 10 is E or D; X 11 is hydroxyproline (Hyp), K, or P; X 12 is K, R, or P; X 13 is R or F; X 14 is K or dK; X 15 is Q, S, or beta-A; X 16 is A or 2-aminoisobutyric acid; X 17 is I; X 18 is K, I, or F; X 19 is dA, I, A, L, V, dL, or dV; and X 20 is I, L, V, dI, dL, dV, or absent; wherein the peptide comprises a hydrophobic moiety that comprises a lipid moiety selected from the group consisting of: capryloyl (C 8); nonanoyl (C 9); capryl (C 10); undecanoyl (C 11); lauroyl (C 12); tridecanoyl (C 13); myristoyl (C 14); pentadecanoyl (C 15); palmitoyl (C 16); phytanoyl (methyl substituted C 16); heptadecanoyl (C 17); stearoyl (C 18); nonadecanoyl (C 19); arachidoyl (C 20); heneicosanoyl (C 21); behenoyl (C 22); trucisanoyl (C 23); and lignoceroyl (C 24); and wherein the peptide exhibits at least 70% inhibition of PAR2 as assessed by calcium flux using 10 μM of the peptide and 8 μM SLIGRL (SEQ ID NO: 73) in cells; or wherein the peptide exhibits at least 40% inhibition of PAR2 as assessed by calcium flux using 3 μM of the peptide and 8 μM SLIGRL (SEQ ID NO: 73) in cells. X 4 is G; X 5 is L; X 6 is D, E, or H; X 7 is E or H; X 8 is N or D; X 9 is S, T, H, R, or K; X 10 is E or D; X 11 is hydroxyproline (Hyp), K, or P; X 12 is K, R, or P; X 13 is R or F; X 14 is K or dK; X 15 is Q, S, or beta-A; X 16 is A or 2-aminoisobutyric acid; X 17 is I; X 18 is K, I, or F; X 19 is dA, I, A, L, V, dL, or dV; and X 20 is I, L, V, dI, dL, dV, or absent; wherein the peptide comprises a hydrophobic moiety that comprises a lipid moiety selected from the group consisting of: capryloyl (C 8); nonanoyl (C 9); capryl (C 10); undecanoyl (C 11); lauroyl (C 12); tridecanoyl (C 13); myristoyl (C 14); pentadecanoyl (C 15); palmitoyl (C 16); phytanoyl (methyl substituted C 16); heptadecanoyl (C 17); stearoyl (C 18); nonadecanoyl (C 19); arachidoyl (C 20); heneicosanoyl (C 21); behenoyl (C 22); trucisanoyl (C 23); and lignoceroyl (C 24); and wherein the peptide exhibits at least 70% inhibition of PAR2 as assessed by calcium flux using 10 μM of the peptide and 8 μM SLIGRL (SEQ ID NO: 73) in cells; or wherein the peptide exhibits at least 40% inhibition of PAR2 as assessed by calcium flux using 3 μM of the peptide and 8 μM SLIGRL (SEQ ID NO: 73) in cells.
Pivot pin, in particular for sensor control in a vehicle, having a pivot member which has a first portion and a second portion, a pivot head being arranged on the first portion of the pivot member, wherein the pivot member is produced from metal and the pivot head is produced from plastics material and wherein there is formed on the first portion a securing region on which the pivot head is arranged to as to prevent torsion and removal, characterised in that there are formed on the first portion at least one material recess and a material protrusion adjoining the material recess, which define the securing region, and in that the material recess is scraped from the first portion, the material which has been upset thereby forming the material protrusion.
An impregnated fibrous material comprising a fibrous material of continuous fibers and at least one thermoplastic polymer matrix, characterized in that at least one thermoplastic polymer is a non-reactive amorphous polymer whose glass transition temperature is such that Tg ≥ 80 °C, or a non-reactive semi-crystalline polymer whose melting temperature is Tf ≥ 150 °C, where Tg and Tf are determined by differential scanning calorimetry according to standard 11357-2:2013 and 11357-3:2013 respectively, the fiber content by volume is constant in at least 70 % of the volume of the web or ribbon, the fiber content in said prepreg fiber material being between 45 and 65 % by volume on both sides of said fiber material, the porosity rate in said prepreg fiber material being less than 10 %, said impregnated fibrous material being free of non-reactive liquid crystal polymers, meaning that the molecular weight of said thermoplastic polymer is no longer likely to change significantly, i.e. its number average molecular weight (Mn) changes by less than 50 % during its implementation, said impregnated fibrous material being monolayer, the impregnation being carried out with at least one expansion.
A method comprising: sensing a first voltage signal across first and second ends of a series circuit coupled to a load to obtain a first sensed signal; sensing a second voltage signal at the second end of the series circuit to obtain a second sensed signal; mixing a first version of the first sensed signal with a first version of the second sensed signal to obtain a first sensor output; mixing a second version of the first sensed signal with a second version of the second sensed signal to obtain a second sensor output; determining impedance or delivered power at the second end of the series circuit based on the first and second sensor outputs; and adjusting a tunable matching circuit comprising the series circuit based on the impedance or delivered power at the second end of the series circuit. sensing a first voltage signal across first and second ends of a series circuit coupled to a load to obtain a first sensed signal; sensing a second voltage signal at the second end of the series circuit to obtain a second sensed signal; mixing a first version of the first sensed signal with a first version of the second sensed signal to obtain a first sensor output; mixing a second version of the first sensed signal with a second version of the second sensed signal to obtain a second sensor output; determining impedance or delivered power at the second end of the series circuit based on the first and second sensor outputs; and adjusting a tunable matching circuit comprising the series circuit based on the impedance or delivered power at the second end of the series circuit.
A hot-melt adhesive resin film comprising a first adhesive layer, a first intermediate layer, a substrate layer having heat resistance, a second intermediate layer, and a second adhesive layer, which are laminated in this order, wherein said first adhesive layer and said second adhesive layer contain 80 parts by mass to 99.9 parts by mass of an acid-modified polyolefin resin, and 0.1 parts by mass to 20 parts by mass of an epoxy group-containing polyolefin-based resin having a main chain which is obtained by copolymerizing an olefin compound and an epoxy group-containing vinyl monomer and a side chain bound to said main chain, and having a melting point of 80°C to 120°C.
A heteroepitaxial wafer comprising in the following order a substrate made of Silicon having a thickness, a diameter and a resistivity comprising a buried gettering layer for Hydrogen, a 3C-SiC layer, an Aluminum-Nitride nucleation layer, comprising in the given order a first nitrogen enriched Aluminum-Nitride region, an Aluminum-Nitride region and a second nitrogen enriched Aluminum-Nitride region. a substrate made of Silicon having a thickness, a diameter and a resistivity comprising a buried gettering layer for Hydrogen, a 3C-SiC layer, an Aluminum-Nitride nucleation layer, comprising in the given order a first nitrogen enriched Aluminum-Nitride region, an Aluminum-Nitride region and a second nitrogen enriched Aluminum-Nitride region.
A rotation apparatus for a boom of a mining vehicle, the apparatus comprising a rotation device having an axial central axis, characterized in that the rotation device comprises - a housing, - an inner manifold having a tube-like structure with a space within, wherein the inner manifold is arranged concentrically inside the housing, wherein -- the housing is arranged to rotate around the axial central axis, -- the housing comprises a housing channel, -- the inner manifold comprises a fluid channel having a fluid inlet for receiving fluid from the boom, and -- the fluid channel is connected to the housing channel for forming a fluid conduit through the rotation device, and the rotation apparatus further comprises electric cables routed through the rotation device, whereby the electric cables are routed through the rotation device at the axial central axis. - a housing, - an inner manifold having a tube-like structure with a space within, wherein the inner manifold is arranged concentrically inside the housing, wherein -- the housing is arranged to rotate around the axial central axis, -- the housing comprises a housing channel, -- the inner manifold comprises a fluid channel having a fluid inlet for receiving fluid from the boom, and -- the fluid channel is connected to the housing channel for forming a fluid conduit through the rotation device, and the rotation apparatus further comprises electric cables routed through the rotation device, whereby the electric cables are routed through the rotation device at the axial central axis. -- the housing is arranged to rotate around the axial central axis, -- the housing comprises a housing channel, -- the inner manifold comprises a fluid channel having a fluid inlet for receiving fluid from the boom, and -- the fluid channel is connected to the housing channel for forming a fluid conduit through the rotation device, and
A path computation method applied in a Time Division Multiplex network, comprising: receiving concatenation capabilities of each interface of nodes in the network; receiving a path computation request message carrying identifiers of a source node and a destination node that access a client-side service and carrying a path concatenation constraint; the concatenation constraint comprises: concatenation unit, concatenation number, and concatenation type, and that the concatenation number is greater than 1; computing a path according to the identifiers of the source node and the destination node that access a client-side service, the concatenation constraint, and the concatenation capabilities of the each interface of the nodes in the network; and sending a path computation response message carrying path information obtained through computation; a path corresponding to the path information carried in the path computation response message is a concatenation path conforming to the concatenation constraint. receiving concatenation capabilities of each interface of nodes in the network; receiving a path computation request message carrying identifiers of a source node and a destination node that access a client-side service and carrying a path concatenation constraint; the concatenation constraint comprises: concatenation unit, concatenation number, and concatenation type, and that the concatenation number is greater than 1; computing a path according to the identifiers of the source node and the destination node that access a client-side service, the concatenation constraint, and the concatenation capabilities of the each interface of the nodes in the network; and sending a path computation response message carrying path information obtained through computation; a path corresponding to the path information carried in the path computation response message is a concatenation path conforming to the concatenation constraint.
A self-standing liquid package bag provided with a flat film valve, characterized in that in an upper part or a top part of either side edge of a bag body portion having an elasticity and made from two front and rear laminate plastic films, each of which being constituted with an oriented base film layer and a sealant layer laminated on at least one surface of the base film layer, is protrudingly formed a flat film valve having a self-sealing one-way function by fusing the opposed inner sealant layers of the two laminate plastic films to each other at peripheral parts other than base end sides to form a fusion portion and a non-fusion portion as a pouring path of a liquid packed material and full faces in the pouring path and only a part of the fusion portion adjacent to the pouring path having wet treated surfaces, and a self-standing bottom portion is formed at the bottom of the bag body portion.
A steam cycle system for plant systems, comprising: a fuel feed line to supply a fuel mixture to one or more pieces of equipment of a plant system; a first expansion turbine to couple to an exhaust line of the one or more pieces of equipment; a first separator comprising: an inlet, a lower outlet coupled to a water feed line, and an upper outlet coupled to the fuel feed line; and a first heat exchanger unit comprising: a first heat exchanger inlet line coupled to an outlet of the first expansion turbine, a first heat exchanger outlet line coupled to the inlet of the first separator, a second heat exchanger inlet line coupled to the water feed line, and a second heat exchanger outlet line coupled to the fuel feed line. a fuel feed line to supply a fuel mixture to one or more pieces of equipment of a plant system; a first expansion turbine to couple to an exhaust line of the one or more pieces of equipment; a first separator comprising: an inlet, a lower outlet coupled to a water feed line, and an upper outlet coupled to the fuel feed line; and an inlet, a lower outlet coupled to a water feed line, and an upper outlet coupled to the fuel feed line; and a first heat exchanger unit comprising: a first heat exchanger inlet line coupled to an outlet of the first expansion turbine, a first heat exchanger outlet line coupled to the inlet of the first separator, a second heat exchanger inlet line coupled to the water feed line, and a second heat exchanger outlet line coupled to the fuel feed line. a first heat exchanger inlet line coupled to an outlet of the first expansion turbine, a first heat exchanger outlet line coupled to the inlet of the first separator, a second heat exchanger inlet line coupled to the water feed line, and a second heat exchanger outlet line coupled to the fuel feed line.
A method for suppressing optical beat interference noise in a Raman amplifier of a fiber link of an optical network, comprising: detuning a wavelength of a laser beam generated by a first pump laser and a wavelength of a laser beam generated by a second pump laser of a pair of polarization multiplexed pump lasers with respect to each other to suppress the optical beat interference, OBI, noise in the fiber link of said optical network, wherein each of said first pump laser and said second pump laser is connected to a tuning circuit, and wherein the wavelengths of the laser beams issued by said first and second pump laser are detuned with respect to each other by said tuning circuit which is adapted to detune temperatures of the respective pump lasers of said pair (8, 9) of polarization multiplexed pump lasers. detuning a wavelength of a laser beam generated by a first pump laser and a wavelength of a laser beam generated by a second pump laser of a pair of polarization multiplexed pump lasers with respect to each other to suppress the optical beat interference, OBI, noise in the fiber link of said optical network, wherein each of said first pump laser and said second pump laser is connected to a tuning circuit, and wherein the wavelengths of the laser beams issued by said first and second pump laser are detuned with respect to each other by said tuning circuit which is adapted to detune temperatures of the respective pump lasers of said pair (8, 9) of polarization multiplexed pump lasers.
A fabrics printing method performed by use of a printing device for fabrics, the printing device including: a print head that performs printing on a fabric material; a supply roll that the fabric material is to be wound around; a support roll that winds therearound the fabric material fed from the supply roll, the support roll guiding the fabric material toward a position below the print head; a winding roll rotatable by being driven, the winding roll winding up therearound the fabric material which has passed the position below the print head; and a feed roll provided on a moving route of the fabric material between the position below the print head and the winding roll, the feed roll being contactable with the fabric material; wherein the printing device is structured to feed the fabric material toward the winding roll by a prescribed length each time when one cycle of print operation is performed by the print head, so that the printing is performed on the fabric material intermittently; the printing method comprising: performing, after one cycle of print operation, a first feed operation on the fabric material of intermittently rotating the feed roll by a first motor to pull the fabric material from the position below the print head and feed the fabric material toward the winding roll by a prescribed length by the rotation of the feed roll; and performing, along with the first feed operation, a second feed operation on the fabric material of intermittingly rotating a supply/feed roll or the supply roll by a second motor to feed the fabric material toward the position below the print head, the supply/feed roll winding therearound the fabric material without pinching at a position upstream with respect to the support roll in a moving direction of the fabric material. a print head that performs printing on a fabric material; a supply roll that the fabric material is to be wound around; performing, after one cycle of print operation, a first feed operation on the fabric material of intermittently rotating the feed roll by a first motor to pull the fabric material from the position below the print head and feed the fabric material toward the winding roll by a prescribed length by the rotation of the feed roll; and performing, along with the first feed operation, a second feed operation on the fabric material of intermittingly rotating a supply/feed roll or the supply roll by a second motor to feed the fabric material toward the position below the print head, the supply/feed roll winding therearound the fabric material without pinching at a position upstream with respect to the support roll in a moving direction of the fabric material.
An injection device, having - a plunger for displacing a stopper in a syringe or carpule, - a holder for the plunger, - a drive for the axial displacement of the holder of the plunger, - a control device functionally assigned to the drive, wherein - the holder is able to move over a limited distance relative to the plunger or a subcomponent thereof, opposing a pretensioning force, in that - a sensor device is included which detects the relative position of the plunger, or at least a subcomponent thereof, relative to the holder, - which comprises at least one sensor element which works together with the control device, characterized in that - the control device is designed in such a manner that, upon activation of the sensor element, the speed of advancement of the holder of the plunger is at least reduced, wherein - the plunger comprises a basic element, wherein the subcomponent is displaceable thereto, and wherein - the basic element of the plunger is constructed as a hollow cylinder enfolding an interior space, and in that the subcomponent is constructed as a shift plunger displaceably arranged in the interior space. - a plunger for displacing a stopper in a syringe or carpule, - a holder for the plunger, - a drive for the axial displacement of the holder of the plunger, - a control device functionally assigned to the drive, wherein - the holder is able to move over a limited distance relative to the plunger or a subcomponent thereof, opposing a pretensioning force, in that - a sensor device is included which detects the relative position of the plunger, or at least a subcomponent thereof, relative to the holder, - which comprises at least one sensor element which works together with the control device, - the control device is designed in such a manner that, upon activation of the sensor element, the speed of advancement of the holder of the plunger is at least reduced, wherein - the plunger comprises a basic element, wherein the subcomponent is displaceable thereto, and wherein - the basic element of the plunger is constructed as a hollow cylinder enfolding an interior space, and in that the subcomponent is constructed as a shift plunger displaceably arranged in the interior space.
A tire comprising a circular tire frame comprising a resin composition, the resin composition comprising a polypropylene having a melting temperature of 160°C or higher, an ethylene-propylene rubber, and a styrene-containing elastomer, a content of the polypropylene having a melting temperature of 160°C or higher being 60% by mass or less with respect to the resin composition as a whole, and a content of a styrene component being 5% by mass or more with respect to the resin composition as a whole.