mhurhangee/ep-ind-claims huggingface dataset:
A heat exchanger assembly comprising: a header (24, 26) extending in a longitudinal direction; a plurality of heat transfer tubes aligned along the longitudinal direction of the header and connected to the header; a plurality of fins secured to the heat transfer tubes; a first corrective member extending along the longitudinal direction of the header on a downstream side of the air flow of the heat transfer tubes or the header; and characterized by a second corrective member extending along the longitudinal direction of the header on an upstream side of the air flow of the heat transfer tubes or the header; a sandwiched object, which is at least any one of the heat transfer tubes, the fins, and the header (24, 26), being sandwiched by the first corrective member and the second corrective member. a header (24, 26) extending in a longitudinal direction; a plurality of heat transfer tubes aligned along the longitudinal direction of the header and connected to the header; a plurality of fins secured to the heat transfer tubes; a first corrective member extending along the longitudinal direction of the header on a downstream side of the air flow of the heat transfer tubes or the header; and characterized by a second corrective member extending along the longitudinal direction of the header on an upstream side of the air flow of the heat transfer tubes or the header; a sandwiched object, which is at least any one of the heat transfer tubes, the fins, and the header (24, 26), being sandwiched by the first corrective member and the second corrective member.
A method of encoding multiview video content, comprising: encoding a plurality of picture sequences, each representing a sequence of pictures taken from a particular view, into a bitstream of coded pictures comprising intra-coded blocks and inter-coded blocks; encoding information indicating whether intra-coded blocks of a coded picture are constrained intra-coded blocks; characterized by encoding signal information including a signal element into the bitstream, the signal element indicating that, for the display of at least one target view, only pictures from said target view need to be fully decoded, and for at least one other view depended upon by the target view, a picture of said at least one other view comprising intra-coded blocks and inter-coded blocks, only constrained intra-coded blocks need to be decoded for inter-view prediction. encoding a plurality of picture sequences, each representing a sequence of pictures taken from a particular view, into a bitstream of coded pictures comprising intra-coded blocks and inter-coded blocks; encoding information indicating whether intra-coded blocks of a coded picture are constrained intra-coded blocks; characterized by encoding signal information including a signal element into the bitstream, the signal element indicating that, for the display of at least one target view, only pictures from said target view need to be fully decoded, and for at least one other view depended upon by the target view, a picture of said at least one other view comprising intra-coded blocks and inter-coded blocks, only constrained intra-coded blocks need to be decoded for inter-view prediction.
An epoxy resin composition comprising a thermosetting resin and a phosphorus-containing aromatic polyester of formula which is concurrently a flame retardant and an active ester curing agent where X is a bivalent aromatic hydrocarbon group containing from 6 to about 12 carbon atoms, and optionally substituted with an alkyl group or alkoxyl group, containing up to about 6 carbon atoms, or X is a bivalent linear or branched alkylene group of from 1 to 8 carbon atoms, or a bivalent linear or branched alkenylene group of from 2 to about 8 carbon atoms, Y is or or where Z is selected from the group consisting of a covalent bond, -SO 2 -, -C(CH 3) 2 -, - CH(CH 3)-, and -CH 2 -; a = 0-2; b = 0-2, and wherein the wavylines of each structure of Y indicate the bonds to the O atoms which Y bridges in general formula; R 1 is H, alkyl group of from 1 to about 4 carbon atoms, phenyl, naphtyl, where R 2 is H or -C(=O)R 3 and where R 3 is selected from an an alkyl group of from 1 to 4 carbon atoms, a phenyl group, a naphtyl group and an aromatic phenol group which is selected from one of a phenol group, o -cresol group, m -cresol group, p -cresol group, α-naphtol group, and a β-naphtol group, and when R 2 is H, R 1 cannot be phenyl or naphtyl, and n is ≥1. where X is a bivalent aromatic hydrocarbon group containing from 6 to about 12 carbon atoms, and optionally substituted with an alkyl group or alkoxyl group, containing up to about 6 carbon atoms, or X is a bivalent linear or branched alkylene group of from 1 to 8 carbon atoms, or a bivalent linear or branched alkenylene group of from 2 to about 8 carbon atoms, Y is where Z is selected from the group consisting of a covalent bond, -SO 2 -, -C(CH 3) 2 -, - CH(CH 3)-, and -CH 2 -; a = 0-2; b = 0-2, and wherein the wavylines of each structure of Y indicate the bonds to the O atoms which Y bridges in general formula; R 1 is H, alkyl group of from 1 to about 4 carbon atoms, phenyl, naphtyl, where R 2 is H or -C(=O)R 3 and where R 3 is selected from an an alkyl group of from 1 to 4 carbon atoms, a phenyl group, a naphtyl group and an aromatic phenol group which is selected from one of a phenol group, o -cresol group, m -cresol group, p -cresol group, α-naphtol group, and a β-naphtol group, and when R 2 is H, R 1 cannot be phenyl or naphtyl, and n is ≥1.
Vaporiser-tank-unit comprising a vaporiser insert for an inhaler comprising - at least one electrical vaporiser for vaporising liquid fed to the vaporiser, and - electrical contacts for making electrical contact with the vaporiser insert for supplying with electrical energy and/or for receiving control signals for the vaporiser, wherein - the vaporiser insert has a base part with opposingly arranged faces (11, 12) and a jacket side between the faces (11, 12) arranged around at least one flow channel through which vapour can flow, wherein - at least one liquid opening for feeding vaporisable liquid from the outside into the vaporiser insert to the vaporiser is arranged on the jacket side of the base part, charaterised in that - the vaporiser-tank-unit comprises a liquid tank in which the vaporiser insert is inserted, wherein - the liquid tank has an insertion opening and an outlet opening, wherein - the vaporiser insert extends from the insertion opening to the outlet opening, wherein the in particular cartridge or jacket-shaped vaporiser insert can be arranged in an external part, in particular in a liquid tank, in particular inserted or slid thereinto. - at least one electrical vaporiser for vaporising liquid fed to the vaporiser, and - electrical contacts for making electrical contact with the vaporiser insert for supplying with electrical energy and/or for receiving control signals for the vaporiser, wherein - the vaporiser insert has a base part with opposingly arranged faces (11, 12) and a jacket side between the faces (11, 12) arranged around at least one flow channel through which vapour can flow, wherein - at least one liquid opening for feeding vaporisable liquid from the outside into the vaporiser insert to the vaporiser is arranged on the jacket side of the base part, charaterised in that - the vaporiser-tank-unit comprises a liquid tank in which the vaporiser insert is inserted, wherein - the liquid tank has an insertion opening and an outlet opening, wherein - the vaporiser insert extends from the insertion opening to the outlet opening, wherein the in particular cartridge or jacket-shaped vaporiser insert can be arranged in an external part, in particular in a liquid tank, in particular inserted or slid thereinto.
A method for producing a silicon wafer for an IGBT, comprising: by the Czochralski method, performing growth of a silicon ingot having an interstitial oxygen concentration [Oi] of not more than 7.0×10 17 atoms/cm 3; performing doping of phosphorus in the silicon ingot by performing neutron beam irradiation to the ingot; slicing a wafer from the ingot; performing annealing of the wafer in an oxidizing atmosphere containing at least oxygen at a temperature of T(°C) that satisfies a formula, Oi ′ ≦ 2.123 × 10 21 exp − 1.035 / k ′ T ′ + 273; and wherein [Oi] is measured by Fourier transform infrared spectroscopy based on ASTM F-121; and k is Boltzman constant (8.617×10 -5 (eV/K)), wherein [Oi]', k' and T' are the bare numbers equal to the numerical values of [Oi], k and T divided by their units, respectively, wherein [Oi] is given in atoms/cm 3, and wherein the silicon ingot has a nitrogen concentration of not less than 2×10 13 atoms/cm 3 and not more than 5×10 15 atoms/cm 3 by doping nitrogen during the growth of the silicon ingot, the concentration of phosphorus in the wafer is not less than 4.3×10 13 atoms/cm 3 and not more than 2.2×10 14 atoms/cm 3, a strained layer as a gettering layer is formed on one side of the wafer before said annealing of the wafer under the oxidizing atmosphere, and in said annealing the wafer is heated in a mixed gas atmosphere containing oxygen up to an annealing temperature, and the wafer is heated in a pure oxygen atmosphere for annealing at the annealing temperature. by the Czochralski method, performing growth of a silicon ingot having an interstitial oxygen concentration [Oi] of not more than 7.0×10 17 atoms/cm 3; performing doping of phosphorus in the silicon ingot by performing neutron beam irradiation to the ingot; slicing a wafer from the ingot; performing annealing of the wafer in an oxidizing atmosphere containing at least oxygen at a temperature of T(°C) that satisfies a formula, Oi ′ ≦ 2.123 × 10 21 exp − 1.035 / k ′ T ′ + 273; and wherein [Oi] is measured by Fourier transform infrared spectroscopy based on ASTM F-121; and k is Boltzman constant (8.617×10 -5 (eV/K)), wherein [Oi]', k' and T' are the bare numbers equal to the numerical values of [Oi], k and T divided by their units, respectively, wherein [Oi] is given in atoms/cm 3, and wherein the silicon ingot has a nitrogen concentration of not less than 2×10 13 atoms/cm 3 and not more than 5×10 15 atoms/cm 3 by doping nitrogen during the growth of the silicon ingot, the concentration of phosphorus in the wafer is not less than 4.3×10 13 atoms/cm 3 and not more than 2.2×10 14 atoms/cm 3, a strained layer as a gettering layer is formed on one side of the wafer before said annealing of the wafer under the oxidizing atmosphere, and in said annealing the wafer is heated in a mixed gas atmosphere containing oxygen up to an annealing temperature, and the wafer is heated in a pure oxygen atmosphere for annealing at the annealing temperature.
Process for manufacturing a recombinant von Willebrand factor (vWF) by culturing host cells in a bioreactor in a cell culture medium, wherein the host cells produce recombinant vWF which is secreted into the cell culture medium and wherein the vWF in the cell culture medium comprises vWF multimers of different size, wherein at least one cell culture medium component is fed to the cell culture medium and wherein the cell culture comprising the cells, the recombinant vWF and the cell culture medium is pumped over a separation system having a molecular weight cut off size of about 750,000 Da, and wherein the separation system separates the vWF multimers into at least (i) a permeate fraction which is enriched in low molecular weight multimers of vWF and reduced in high molecular weight multimers of vWF as compared to the vWF multimers in the cell culture supernatant before separation and (ii) a retentate fraction which is reduced in low molecular weight multimers of vWF and enriched in high molecular weight multimers of vWF as compared to the vWF multimers in the cell culture supernatant before separation. (i) a permeate fraction which is enriched in low molecular weight multimers of vWF and reduced in high molecular weight multimers of vWF as compared to the vWF multimers in the cell culture supernatant before separation and (ii) a retentate fraction which is reduced in low molecular weight multimers of vWF and enriched in high molecular weight multimers of vWF as compared to the vWF multimers in the cell culture supernatant before separation.
A control apparatus, comprising: a load predicting part configured to predict, based on current load information of an engine rpm controlling part, a load of the engine rpm controlling part at a time point which is a predetermined time ahead of the present time point, the engine rpm controlling part being configured to control an engine rpm; and an engine rpm reducing part configured to reduce the engine rpm if the load predicted by the load predicting part is greater than or equal to a first threshold. a load predicting part configured to predict, based on current load information of an engine rpm controlling part, a load of the engine rpm controlling part at a time point which is a predetermined time ahead of the present time point, the engine rpm controlling part being configured to control an engine rpm; and an engine rpm reducing part configured to reduce the engine rpm if the load predicted by the load predicting part is greater than or equal to a first threshold.
A contact (2, 202) comprising: a contact body including a contact portion (211, 2211) that is brought into contact with a mating contact portion (71, 171) of a mating contact (7, 107), and a supporting member (22, 122) that is a component separate from the contact body, and receives therein the mating contact portion (71, 171), whereby the supporting member (22, 122) includes a supporting member body that receives therein the mating contact portion (71, 171) and the contact portion (211, 2211), a spring portion (222, 223) that is provided on the supporting member body, for bringing the mating contact portion (71, 171) inserted into the supporting member body and the contact portion (211, 2211) into contact with each other, and a restricting portion that is provided on the supporting member body, for restricting movement of the mating contact (7, 107) in a direction of bending of the spring portion (222, 223), and the contact portion (211, 2211) includes a contact portion body (211A, 2211A) having a flat plate shape, and a contact point portion protruding from the contact portion body (211A, 2211A) into an inside of the supporting member body, characterized in that the supporting member (22, 122) supports the contact portion (211, 2211) in a movable manner. a contact body including a contact portion (211, 2211) that is brought into contact with a mating contact portion (71, 171) of a mating contact (7, 107), and a supporting member (22, 122) that is a component separate from the contact body, and receives therein the mating contact portion (71, 171), whereby the supporting member (22, 122) includes a supporting member body that receives therein the mating contact portion (71, 171) and the contact portion (211, 2211), a spring portion (222, 223) that is provided on the supporting member body, for bringing the mating contact portion (71, 171) inserted into the supporting member body and the contact portion (211, 2211) into contact with each other, and a restricting portion that is provided on the supporting member body, for restricting movement of the mating contact (7, 107) in a direction of bending of the spring portion (222, 223), and the contact portion (211, 2211) includes a contact portion body (211A, 2211A) having a flat plate shape, and a contact point portion protruding from the contact portion body (211A, 2211A) into an inside of the supporting member body, characterized in that the supporting member (22, 122) supports the contact portion (211, 2211) in a movable manner.
An ostomy appliance comprising an adhesive wafer for directly or indirectly securing an ostomy pouch to a person's skin, wherein the wafer comprises a starter hole surrounded by a plurality of cutting guidelines for enabling the person to cut the hole into a desired aperture size, characterized in that the cutting guidelines converge with the starter hole at an upper region of the hole and the starter hole is off-centered towards the top of the wafer.
A medical catheter comprising a force sensing system comprising: a deformable body (225; 325; 425; 525; 625; 725; 825; 1025) mounted onto a shaft of the medical catheter and including distal and proximal portions, the deformable body (225; 325; 425; 525; 625; 725; 825; 1025), configured and arranged to deflect in response to a force exerted on the distal portion; a permanent magnet (251; 751) coupled to either the proximal or distal portions of the deformable body (225; 325; 425; 625; 725; 825; 1025), and a magnetic field sensor (252; 752) coupled to the deformable body opposite the permanent magnet (251; 751), the magnetic field sensor configured and arranged to measure a change in magnetic field associated with a change in relative position of the magnetic field sensor (252; 752) and permanent magnet (251; 752) as the deformable body deflects, wherein the deformable body further includes a deflectable portion between the proximal and distal portions, and a beam (750; 850) coupled to the distal portion of the deformable body extends proximally over the deflectable portion; and wherein the permanent magnet is coupled to the proximal end of the beam and the distal portion of the deformable body via the beam. a deformable body (225; 325; 425; 525; 625; 725; 825; 1025) mounted onto a shaft of the medical catheter and including distal and proximal portions, the deformable body (225; 325; 425; 525; 625; 725; 825; 1025), configured and arranged to deflect in response to a force exerted on the distal portion; a permanent magnet (251; 751) coupled to either the proximal or distal portions of the deformable body (225; 325; 425; 625; 725; 825; 1025), and a magnetic field sensor (252; 752) coupled to the deformable body opposite the permanent magnet (251; 751), the magnetic field sensor configured and arranged to measure a change in magnetic field associated with a change in relative position of the magnetic field sensor (252; 752) and permanent magnet (251; 752) as the deformable body deflects, wherein the deformable body further includes a deflectable portion between the proximal and distal portions, and a beam (750; 850) coupled to the distal portion of the deformable body extends proximally over the deflectable portion; and wherein the permanent magnet is coupled to the proximal end of the beam and the distal portion of the deformable body via the beam.
An accumulator of an air conditioner, comprising: a tank; a coolant intake that is formed at the upper portion inside the tank; and a coolant outlet pipe that is vertically disposed in the tank to discharge a gas coolant separated from a coolant that has flowed in the tank, and has a gas coolant outlet at the upper portion of the tank, wherein the coolant outlet pipe is a dual pipe with an internal pipe and an external pipe, and a return cap is combined to the lower end of the dual pipe, the gas coolant flows from the upper portion inside the tank through a gas coolant inlet between the internal pipe and the external pipe, turns into the internal pipe at the return cap, and then continues flowing through the gas coolant outlet to an outer pipe, characterized in that an explosion plate that explodes under a predetermined pressure to rapidly discharge a coolant outside at an abnormal high pressure is provided at lower portion of the tank. a tank; a coolant intake that is formed at the upper portion inside the tank; and a coolant outlet pipe that is vertically disposed in the tank to discharge a gas coolant separated from a coolant that has flowed in the tank, and has a gas coolant outlet at the upper portion of the tank, wherein the coolant outlet pipe is a dual pipe with an internal pipe and an external pipe, and a return cap is combined to the lower end of the dual pipe, the gas coolant flows from the upper portion inside the tank through a gas coolant inlet between the internal pipe and the external pipe, turns into the internal pipe at the return cap, and then continues flowing through the gas coolant outlet to an outer pipe, characterized in that an explosion plate that explodes under a predetermined pressure to rapidly discharge a coolant outside at an abnormal high pressure is provided at lower portion of the tank.
A layered substrate fabricated by layering plural sheets of sheet-shaped prepregs containing a reinforcing fiber oriented in one direction and a thermoplastic matrix resin, wherein the prepreg has a slit penetrating from the front surface to the back surface, each slit is provided so as to intersect with each reinforcing fiber only one time, in a case in which a length of a line connecting a starting point with an end point of the slit is denoted as Ls, the length Ls of the line and a length Lr of the slit satisfy the relation of the following Equation 1, Ls ≤ Lr ≤ Ls × 1.5 the line and a fiber direction of the reinforcing fiber intersect at an angle of 30° or more and 90° or less, a sum of the length Lr of the slits per 1 m 2 of the prepreg is 53.3 m or longer and 200 m or shorter, wherein a volume content of the reinforcing fiber contained in the prepreg constituting the layered substrate is 20% by volume or more and 55% by volume or less with respect to the total volume of the prepreg, and wherein the layered substrate is fabricated by layering the prepregs so as to be from 8 to 96 layers.
A purified human IgG1 mAb that specifically binds to human IL-1α, the mAb comprising a heavy chain covalently joined to a light chain, wherein the heavy chain comprises the amino acid sequence of SEQ ID NO: 9 and the light chain comprises the amino acid sequence of SEQ ID NO:11.
Structural assembly for an aircraft having a longitudinal direction and a median plane, said structural assembly having: - a plurality of pairs of main gantries (204a-b), wherein, for a pair, the main gantries (204a-b) face one another with respect to the median plane and wherein the pairs are distributed in the longitudinal direction, - two transverse panels that are perpendicular to the longitudinal direction and are fixed to the front and the rear of the plurality of pairs of main gantries (204a-b) to together delimit a compartment for a landing gear of the aircraft, - at least one pair of secondary gantries (208a-b) which extend parallel to the longitudinal direction between the main gantries (204a-b) and the ends of which are fixed to the transverse panels, - at least one crossmember which extends parallel to the transverse panels and is disposed in a manner straddling at least one secondary gantry (208a-b), characterized in that the structural assembly has - for each secondary gantry (208a-b) and each crossmember straddling said secondary gantry (208a-b), a connecting rod (216b-c) mounted so as to be able to freely rotate, via a first end, on a lower part of the crossmember and, via a second end, on an outer lateral part of the secondary gantry (208a-b). - a plurality of pairs of main gantries (204a-b), wherein, for a pair, the main gantries (204a-b) face one another with respect to the median plane and wherein the pairs are distributed in the longitudinal direction, - two transverse panels that are perpendicular to the longitudinal direction and are fixed to the front and the rear of the plurality of pairs of main gantries (204a-b) to together delimit a compartment for a landing gear of the aircraft, - at least one pair of secondary gantries (208a-b) which extend parallel to the longitudinal direction between the main gantries (204a-b) and the ends of which are fixed to the transverse panels, - at least one crossmember which extends parallel to the transverse panels and is disposed in a manner straddling at least one secondary gantry (208a-b), characterized in that the structural assembly has - for each secondary gantry (208a-b) and each crossmember straddling said secondary gantry (208a-b), a connecting rod (216b-c) mounted so as to be able to freely rotate, via a first end, on a lower part of the crossmember and, via a second end, on an outer lateral part of the secondary gantry (208a-b).