mhurhangee/ep-ind-claims huggingface dataset:
A computer system, comprising a computer casing having a plurality of side panels, and a main board disposed in the computer casing and having at least one heat generating component disposed thereon, wherein a side wall of the computer casing facing the heat generating component has a heat conductive body projecting toward the heat generating component, the projecting heat conductive body being an integral part of and integrally formed with a heat distribution plate, wherein the heat distribution plate is arranged on the corresponding side wall, and wherein the heat conductive body and the heat distribution plate are formed as a die-cast aluminum component, and the heat conductive body is designed to absorb, by means of heat conduction, heat energy of the heat-generating component which is generated during an intended operation, and to dissipate it into the corresponding side wall by means of heat conduction.
A three-dimensional magnetic template for identifying mounting locations for affixing a surface mounted door hardware device to a steel door component, and comprising: a template sized the same as the surface mounted door hardware device, said template comprising a working element that is adapted to engage a cooperating door hardware device, characterized in that, one or more magnets are mounted to the template and positioned to hold the template to a steel component of a door jamb or a door, through holes are located in the template in the same positions as anchor pins and/or mounting screw holes in the door hardware device. a template sized the same as the surface mounted door hardware device, said template comprising a working element that is adapted to engage a cooperating door hardware device, characterized in that, one or more magnets are mounted to the template and positioned to hold the template to a steel component of a door jamb or a door, through holes are located in the template in the same positions as anchor pins and/or mounting screw holes in the door hardware device.
Use of a hardener containing at least one amine of formula for curing of epoxy resins, wherein A represents a linear alkylene radical having 2 to 10 carbon atoms and X represents H or furfuryl.
Magnetocaloric heat generator (1, 10, 100, 1', 1") comprising at least one assembly of at least two magnetocaloric modules (2, 3, 4, 5, 2', 3') with a heat transfer fluid circulated by circulating means (212, 312, 412, 512, 422, 212', 312') flowing through them, characterized in that each magnetocaloric module (2, 3, 4, 5, 2', 3') comprises at least two magnetocaloric stages (210, 211, 310, 311, 410, 411, 420, 421, 430, 431, 510, 511, 520, 521, 530, 531, 610, 610', 611, 611', 710, 710', 711, 711') of magnetocaloric material(s), said at least two stages of each module being constantly in a different magnetic phase, in that said heat transfer fluid circulating means (212, 312, 412, 512, 422) are arranged between said at least two stages of each magnetocaloric module to connect them fluidly with each other, in that the magnetocaloric stages (210, 211, 310, 311, 410, 411, 420, 421, 430, 431, 510, 511, 520, 521, 530, 531, 610, 610', 611, 611', 710, 710', 711, 711') are made of magnetocaloric materials arranged so that the magnetocaloric effect is substantially the same in all magnetocaloric stages, in that the cold ends (F2, F3, F4, F5, F6, F7) of said magnetocaloric modules (2, 3, 4, 5, 2', 3') are in fluidic communication by means of a cold transfer circuit used by said heat transfer fluid and intended for a heat exchange with an external circuit by means of a heat exchanger, in that the hot ends (C2, C3, C4, C5, C6, C7) of said magnetocaloric modules (2, 3, 4, 5, 2', 3') are in fluidic communication by means of a hot transfer circuit used by said heat transfer fluid and intended for a heat exchange with an external circuit by means of a heat exchanger, and in that the heat exchangers (61, 71) are parameterized so that the difference of the inlet and outlet temperatures of the heat transfer fluid in said exchangers (61, 71) is substantially equal to the variation of the temperature of the heat transfer fluid in contact with a magnetocaloric stage (210, 211, 310, 311, 410, 411, 420, 421, 430, 431, 510, 511, 520, 521, 530, 531, 610, 610', 611, 611', 710, 710', 711, 711') subjected to the magnetocaloric effect.
A bonded structure, comprising a Zn-based brazing filler metal and a Cu-based bonding object bonded to each other, and further comprising an Al-based bonding object bonded with the Zn-based brazing filler metal, - wherein the bonded structure comprises a joint including a first alloy phase, a second alloy phase and a third alloy phase between the Zn-based brazing filler metal and the Cu-based bonding object, - wherein the first alloy phase is an alloy phase having a basic composition of Cu 5 Zn 8 and being formed on a Cu-based bonding object side of the joint, - wherein the third alloy phase is an alloy phase having a basic composition of CuZn 4 or CuZn 5 and being formed on a Zn-based brazing filler metal side of the joint, and in which part of a surface thereof on the Cu-based bonding object side is in contact with the first alloy phase, - wherein the second alloy phase is an alloy phase having a basic composition of CuZn 3 and being formed at an interface between the first alloy phase and the third alloy phase, and - wherein, in a cross section parallel to a bonding direction, a ratio of the second alloy phase at the interface between the first alloy phase and the third alloy phase is less than 80 %. - wherein the bonded structure comprises a joint including a first alloy phase, a second alloy phase and a third alloy phase between the Zn-based brazing filler metal and the Cu-based bonding object, - wherein the first alloy phase is an alloy phase having a basic composition of Cu 5 Zn 8 and being formed on a Cu-based bonding object side of the joint, - wherein the third alloy phase is an alloy phase having a basic composition of CuZn 4 or CuZn 5 and being formed on a Zn-based brazing filler metal side of the joint, and in which part of a surface thereof on the Cu-based bonding object side is in contact with the first alloy phase, - wherein the second alloy phase is an alloy phase having a basic composition of CuZn 3 and being formed at an interface between the first alloy phase and the third alloy phase, and - wherein, in a cross section parallel to a bonding direction, a ratio of the second alloy phase at the interface between the first alloy phase and the third alloy phase is less than 80 %.
Method for synchronizing a frequency of a client clock with a server clock frequency, such synchronization being performed through timing packets transmitted by the server towards the client through a telecommunication network, said method comprising: - the transmission by the server of groups of timing packets, - the estimation of a distributed reference frequency 1/τ est by a weighted equation: τ est = a × < τ 1 > N + 1 - a × < τ 3 > M, with: ∘ "N" and "M" are integers ∘ "a" is a weighted coefficient ∘ <τ1> is an average of emission timing packets period, said emission timing packet period (τ1) being measured between successive timing packets of a same group ∘ <τ3> is an average of emission group period, said emission group period τ3 being measured between first timing packets of successive groups wherein: - transmission delays of timing packets within a same group are strongly correlated, - transmission delays of timing packets from different groups are loosely correlated. - the transmission by the server of groups of timing packets, - the estimation of a distributed reference frequency 1/τ est by a weighted equation: τ est = a × < τ 1 > N + 1 - a × < τ 3 > M, with: ∘ "N" and "M" are integers ∘ "a" is a weighted coefficient ∘ <τ1> is an average of emission timing packets period, said emission timing packet period (τ1) being measured between successive timing packets of a same group ∘ <τ3> is an average of emission group period, said emission group period τ3 being measured between first timing packets of successive groups wherein: with: ∘ "N" and "M" are integers ∘ "a" is a weighted coefficient ∘ <τ1> is an average of emission timing packets period, said emission timing packet period (τ1) being measured between successive timing packets of a same group ∘ <τ3> is an average of emission group period, said emission group period τ3 being measured between first timing packets of successive groups wherein: ∘ "N" and "M" are integers ∘ "a" is a weighted coefficient ∘ <τ1> is an average of emission timing packets period, said emission timing packet period (τ1) being measured between successive timing packets of a same group ∘ <τ3> is an average of emission group period, said emission group period τ3 being measured between first timing packets of successive groups wherein: - transmission delays of timing packets within a same group are strongly correlated, - transmission delays of timing packets from different groups are loosely correlated.
A biopsy device (100, 200, 300) comprising: a hub (120, 220) coupled to a first end of a cannula (150, 190, 250, 390) and having a vacuum port (130, 260), the vacuum port (130, 260) being in communication with the cannula (150, 190, 250, 390); a vacuum line in communication with the vacuum port (130, 260); a housing surrounding the cannula (150, 190, 250, 390) between the first end and an opposite second end of the cannula; and a biasing member coupled with the hub (120, 220) and the housing, the biasing member configured to impart a biasing force on the hub (120, 220) in a direction away from the housing, wherein the cannula (150, 190, 250, 390) is configured to receive liquid and cellular samples from a body of a patient, wherein the housing is configured for holding the device relative to the body of the patient when in use; and wherein the cannula (150, 190, 250, 390) is translatable in a direction toward the housing when a force sufficient to overcome the biasing force of the biasing member is applied on the hub characterised in that the hub (120, 220) has a needle port into which a needle or stylet may be inserted during operation. a hub (120, 220) coupled to a first end of a cannula (150, 190, 250, 390) and having a vacuum port (130, 260), the vacuum port (130, 260) being in communication with the cannula (150, 190, 250, 390); a vacuum line in communication with the vacuum port (130, 260); a housing surrounding the cannula (150, 190, 250, 390) between the first end and an opposite second end of the cannula; and a biasing member coupled with the hub (120, 220) and the housing, the biasing member configured to impart a biasing force on the hub (120, 220) in a direction away from the housing, wherein the cannula (150, 190, 250, 390) is configured to receive liquid and cellular samples from a body of a patient, wherein the housing is configured for holding the device relative to the body of the patient when in use; and wherein the cannula (150, 190, 250, 390) is translatable in a direction toward the housing when a force sufficient to overcome the biasing force of the biasing member is applied on the hub
A method for producing an L-amino acid comprising: culturing a coryneform bacterium having an L-amino acid-producing ability in a medium; and collecting the L-amino acid from the medium, wherein the bacterium has been modified so that the activity of a phosphate transporter, the pitA protein, is increased and wherein the L-amino acid is L-glutamic acid. culturing a coryneform bacterium having an L-amino acid-producing ability in a medium; and collecting the L-amino acid from the medium, wherein the bacterium has been modified so that the activity of a phosphate transporter, the pitA protein, is increased and wherein the L-amino acid is L-glutamic acid.
A device for reducing the load on a supporting structure comprising a housing defining a chamber, at least one object having a first face and a substantially opposite second face,, the object being mounted in the chamber by means of said supporting structure, so that it can be displaced relative to the housing leaving free a gap between the outer object perimeter and the inner perimeter of the chamber, wherein a seal is provided in said gap separating a first section of the chamber and a second section of the chamber, an exposing means (42; 92) for exposing at least the first face of the object in the first section to a gas pressure, which, by comparison with the pressure exerted upon the substantially opposite second face in the second section, generates an upward differential pressure force that at least partially compensates for the weight of the object, characterized in that said seal is supported by a movable part of the housing and the device further comprises an adjusting means for adjusting the position of at least said movable part of the housing with respect to the object.
Use of hyperpolarized 13 C-pyruvate for the manufacture of an MR imaging medium used in a method of determining the grade of a tumor, said method comprising the steps of: a) MR detecting a tumor in a subject using said MR imaging that comprises hyperpolarized 13 C-pyruvate wherein signals of 13 C-pyruvate and its 13 C-containing metabolites alanine, lactate and optionally bicarbonate are detected; b) using the lactate to total carbon signal to generate a metabolic profile of the tumor; c) comparing the metabolic profile of the tumor generated in step b) to a known metabolic profile of a tumor of a certain grade; and d) determining the grade of the tumor based on the similarities and differences between said metabolic profile of the tumor and said known metabolic profile. a) MR detecting a tumor in a subject using said MR imaging that comprises hyperpolarized 13 C-pyruvate wherein signals of 13 C-pyruvate and its 13 C-containing metabolites alanine, lactate and optionally bicarbonate are detected; b) using the lactate to total carbon signal to generate a metabolic profile of the tumor; c) comparing the metabolic profile of the tumor generated in step b) to a known metabolic profile of a tumor of a certain grade; and d) determining the grade of the tumor based on the similarities and differences between said metabolic profile of the tumor and said known metabolic profile.
A method comprising: writing by a host computer system, a plurality of weight matrices to a memory shared with a neural network accelerator; assembling a plurality of per-layer instructions into an instruction package by the host computer system, each per-layer instruction specifying processing of a respective layer of a plurality of layers of a neural network, and respective offsets of weight matrices in the shared memory; writing input data and the instruction package by the host computer system to the shared memory; reading the instruction package from the shared memory by the neural network accelerator; and processing the plurality of per-layer instructions of the instruction package by the neural network accelerator, wherein the processing the plurality of per-layer instructions includes: processing a first per-layer instruction followed in succession by processing a second per-layer instruction of the instruction package; reading input data from a first portion of the shared memory and writing output data to a second portion of the shared memory in processing the first per-layer instruction; and reading input data from the second portion of the shared memory and writing output data to the first portion of the shared memory in processing the second per-layer instruction. writing by a host computer system, a plurality of weight matrices to a memory shared with a neural network accelerator; assembling a plurality of per-layer instructions into an instruction package by the host computer system, each per-layer instruction specifying processing of a respective layer of a plurality of layers of a neural network, and respective offsets of weight matrices in the shared memory; writing input data and the instruction package by the host computer system to the shared memory; reading the instruction package from the shared memory by the neural network accelerator; and processing the plurality of per-layer instructions of the instruction package by the neural network accelerator, wherein the processing the plurality of per-layer instructions includes: processing a first per-layer instruction followed in succession by processing a second per-layer instruction of the instruction package; reading input data from a first portion of the shared memory and writing output data to a second portion of the shared memory in processing the first per-layer instruction; and reading input data from the second portion of the shared memory and writing output data to the first portion of the shared memory in processing the second per-layer instruction. processing a first per-layer instruction followed in succession by processing a second per-layer instruction of the instruction package; reading input data from a first portion of the shared memory and writing output data to a second portion of the shared memory in processing the first per-layer instruction; and reading input data from the second portion of the shared memory and writing output data to the first portion of the shared memory in processing the second per-layer instruction.
A method for assessing, in the first trimester of a pregnancy, the risk of developing preterm severe preeclampsia before the 36th week in a woman, comprising: determining the level of apolipoprotein H precursor, having Accession Number gi|153266841, in a blood sample obtained from the woman, wherein an increased level apolipoprotein H precursor is indicative of an increased risk of developing preterm severe preeclampsia before the 36th week.
A method, comprising: spray drying a solution comprising a polyamide and a solvent to form polyamide particles having an average diameter of between 0.5 μm and 10 μm and at least 85% of the polyamide particles having a diameter distribution of no more than 1.5 μm, wherein the polyamide is 1 wt% to 8 wt% of the solution and wherein the diameter of said polyamide particles is as determined using a Scanning Electron Micrograph. spray drying a solution comprising a polyamide and a solvent to form polyamide particles having an average diameter of between 0.5 μm and 10 μm and at least 85% of the polyamide particles having a diameter distribution of no more than 1.5 μm, wherein the polyamide is 1 wt% to 8 wt% of the solution and wherein the diameter of said polyamide particles is as determined using a Scanning Electron Micrograph.
A method for manufacturing a fuel box for a boiling water nuclear reactor, wherein a sheet metal is manufactured by a method comprising the steps of providing a material of a zirconium alloy, which mainly consists of zirconium, wherein the main alloying materials of the alloy comprises niobium, wherein no alloying material is present in a content exceeding 1.6 percent by weight and wherein the alloy comprises niobium containing secondary phase particles, wherein the main alloying materials are niobium, iron and tin, wherein the content of any additional materials is below 0.05 percent by weight, wherein either the niobium content is 0.5-1.6 percent by weight, the iron content is 0.3-0.6 percent by weight, and the tin content is 0.5-0.85 percent by weight, or the tin content is 0.7-1.1 percent by weight, the iron content is 0.09-0.15 percent by weight, and the niobium content is 0.8-1.2 percent by weight, subjecting the material to at least one hot-rolling, subjecting the material to at least a first β-quenching, subjecting the hot-rolled material to at least one cold-rolling, characterized in that, after said at least one cold-rolling and after said first β-quenching, transformation annealing the cold-rolled material, at a temperature below the phase boundary for secondary phase particles in the form of β-zirconium particles, for so long time that essentially all niobium containing secondary phase particles are transformed into β-niobium particles, which are particles in the zirconium alloy with a niobium content exceeding 90 percent by weight, and the sheet metal is arranged as at least one of the walls of the fuel box.
A method for decontaminating an object disposed in a region, said method comprising the steps of: heating said region to a target temperature; introducing steam into said region until a relative humidity level in said region reaches a target humidity level; introducing vaporized hydrogen peroxide into said region until vaporized hydrogen peroxide concentration in said region reaches a target vaporized hydrogen peroxide concentration; and maintaining said target temperature, said target vaporized hydrogen peroxide concentration, and said target humidity level in said region until a predetermined target dose is obtained, wherein said target vaporized hydrogen peroxide concentration is between about 25 ppm and about 50 ppm, said target temperature is between about 40°C and about 60°C and said target humidity level is greater than about 50% relative humidity. heating said region to a target temperature; introducing steam into said region until a relative humidity level in said region reaches a target humidity level; introducing vaporized hydrogen peroxide into said region until vaporized hydrogen peroxide concentration in said region reaches a target vaporized hydrogen peroxide concentration; and maintaining said target temperature, said target vaporized hydrogen peroxide concentration, and said target humidity level in said region until a predetermined target dose is obtained, wherein said target vaporized hydrogen peroxide concentration is between about 25 ppm and about 50 ppm, said target temperature is between about 40°C and about 60°C and said target humidity level is greater than about 50% relative humidity.
Suspension unit for taking up and transporting sausage loops with hooks circulating around a guide rail, where said guide rail has an elongate front side and an oppositely disposed rear side wherein said guide rail is inclined relative to a horizontal plane such that said front side is at a higher level than said rear side characterized in that that the distance (b 1) of a guide rail section at said front side immediately upstream of said deflection region from a guide rail section at said rear side immediately downstream of said deflection region is smaller than the distance (b 2) in a region that is in the direction of transport downstream. said guide rail is inclined relative to a horizontal plane such that said front side is at a higher level than said rear side characterized in that that the distance (b 1) of a guide rail section at said front side immediately upstream of said deflection region from a guide rail section at said rear side immediately downstream of said deflection region is smaller than the distance (b 2) in a region that is in the direction of transport downstream.
A sustained release pharmaceutical composition in form of microparticles comprising as active ingredient octreotide or a pharmaceutically-acceptable salt thereof and two or more different polylactide-co-glycolide polymers (PLGAs), wherein the PLGAs are present in a mixture of depots which is a mixture of two or more depots like microparticles of different composition with one and more PLGAs in each depot, and wherein the PLGAs have a lactide:glycolide monomer ratio of 100:0 to 40:60 and the inherent viscosity of the PLGAs is below 0.9 dl/g in chloroform.
Interleukin-8 (IL-8) for use in a method for improving health of a female mammal, the use comprising administering to the female mammal an effective amount of Interleukin-8 (IL-8); wherein the female mammal is within twenty weeks of parturition; and wherein the improving the health of the female mammal comprises inhibiting development of puerperal metritis. wherein the female mammal is within twenty weeks of parturition; and wherein the improving the health of the female mammal comprises inhibiting development of puerperal metritis.