mhurhangee/ep-ind-claims huggingface dataset:
A system for manufacturing printed circuit boards, comprising: a standard reflow oven configured to elevate a temperature therein; a solder pallet assembly configured to be selectively inserted into said standard reflow oven, characterized by said solder pallet assembly including: a vacuum solder pallet (100, 300, 500) mounted to a carrier and defining a selectively sealable solder chamber (120, 338, 520) configured to temporarily receive a printed circuit board (140, 342, 522) therein; and a vacuum chamber pallet mounted to said carrier and defining a chamber that is fluidly connected to said vacuum solder pallet (100, 300, 500) so as to provide a source of negative pressure relative to a pressure in said vacuum solder pallet chamber, wherein said solder pallet assembly further comprises a valve configured to selectively open and close the fluid communication path between said solder chamber (120, 338, 520) and said source of negative pressure. a standard reflow oven configured to elevate a temperature therein; a solder pallet assembly configured to be selectively inserted into said standard reflow oven, characterized by said solder pallet assembly including: a vacuum solder pallet (100, 300, 500) mounted to a carrier and defining a selectively sealable solder chamber (120, 338, 520) configured to temporarily receive a printed circuit board (140, 342, 522) therein; and a vacuum chamber pallet mounted to said carrier and defining a chamber that is fluidly connected to said vacuum solder pallet (100, 300, 500) so as to provide a source of negative pressure relative to a pressure in said vacuum solder pallet chamber, a vacuum solder pallet (100, 300, 500) mounted to a carrier and defining a selectively sealable solder chamber (120, 338, 520) configured to temporarily receive a printed circuit board (140, 342, 522) therein; and a vacuum chamber pallet mounted to said carrier and defining a chamber that is fluidly connected to said vacuum solder pallet (100, 300, 500) so as to provide a source of negative pressure relative to a pressure in said vacuum solder pallet chamber, wherein said solder pallet assembly further comprises a valve configured to selectively open and close the fluid communication path between said solder chamber (120, 338, 520) and said source of negative pressure.
Method for warming-up a steam turbine, wherein the steam turbine comprises a high-pressure turbine section and an intermediate-pressure and/or low-pressure turbine section (3, 4), wherein the high-pressure turbine section on the inlet side is fluidically connected via a live steam line to a steam generator, wherein a steam valve is arranged between the high-pressure turbine section and the intermediate-pressure turbine section, wherein the high-pressure turbine section, the live steam line and the steam generator are warmed-up at the same time, characterized by the following steps: a) Increasing an outlet side back-pressure of the high-pressure turbine section, b) Opening a valve, which is arranged upstream of the inlet of the high-pressure turbine section, as soon as the conductivity of the steam which is produced in the steam generator falls below a tolerance value, c) Closing the steam valve which is arranged between the high-pressure turbine section and the intermediate-pressure turbine section, d) Governing the rotational speed of the rotor of the high-pressure turbine section at a value below the nominal speed, e) Reducing the back-pressure as soon as the conductivity of the steam which is produced in the steam generator falls below a limiting value, wherein the limiting value is lower than the tolerance value, f) Warming-up the intermediate-pressure and/or low-pressure turbine section with the steam which is produced by the steam generator and the conductivity of which is below the limiting value, by opening the steam valve. a) Increasing an outlet side back-pressure of the high-pressure turbine section, b) Opening a valve, which is arranged upstream of the inlet of the high-pressure turbine section, as soon as the conductivity of the steam which is produced in the steam generator falls below a tolerance value, c) Closing the steam valve which is arranged between the high-pressure turbine section and the intermediate-pressure turbine section, d) Governing the rotational speed of the rotor of the high-pressure turbine section at a value below the nominal speed, e) Reducing the back-pressure as soon as the conductivity of the steam which is produced in the steam generator falls below a limiting value, wherein the limiting value is lower than the tolerance value, f) Warming-up the intermediate-pressure and/or low-pressure turbine section with the steam which is produced by the steam generator and the conductivity of which is below the limiting value, by opening the steam valve.
A pane with an electrical connection element, comprising: - a substrate made of glass with a first coefficient of thermal expansion, - an electrically conductive structure with a layer thickness of 5 μm to 40 μm on a region of the substrate, - a connection element with a second coefficient of thermal expansion, wherein the difference between the first and the second coefficient of expansion is ≥ 5 x 10 -6 /°C, and - a layer of a solder compound, which connects the connection element electrically to subregions of the electrically conductive structure, characterised in that the connection element contains at least 50 wt.-% to 75 wt.-% iron, 25 wt.-% to 50 wt.-% nickel, 0 wt.-% to 20 wt.-% cobalt, 0 wt.-% to 1.5 wt.-% magnesium, 0 wt.-% to 1 wt.-% silicon, 0 wt.-% to 1 wt.-% carbon, or 0 wt.-% to 1 wt.-% manganese. - a substrate made of glass with a first coefficient of thermal expansion, - an electrically conductive structure with a layer thickness of 5 μm to 40 μm on a region of the substrate, - a connection element with a second coefficient of thermal expansion, wherein the difference between the first and the second coefficient of expansion is ≥ 5 x 10 -6 /°C, and - a layer of a solder compound, which connects the connection element electrically to subregions of the electrically conductive structure,
Device for adapting the use of an apparatus, comprising: a processing unit to verify whether there is a license for the apparatus, and, if this is the case to generate a certificate request, and a transmitting/receiving unit to send the certificate request to a certification server and to receive a certificate from the certification server in response to the certificate request, wherein the processing unit is set up to verify if information contained within the certificate corresponds to license information and to adapt the use of the apparatus based on the certificate. a processing unit to verify whether there is a license for the apparatus, and, if this is the case to generate a certificate request, and a transmitting/receiving unit to send the certificate request to a certification server and to receive a certificate from the certification server in response to the certificate request, wherein the processing unit is set up to verify if information contained within the certificate corresponds to license information and to adapt the use of the apparatus based on the certificate.
A clamp assembly, comprising: a grommet comprising a non-circular aperture (106, 108) with a multiple of crush apertures defined at least partially around the non-circular aperture (106, 108); characterised in that: the non-circular aperture (106, 108) defines a diameter along a major axis and a diameter along a minor axis, the multiple of crush apertures arranged in an arc at least partially around the major axis; and in that the multiple of crush apertures are each sized with respect to the minor axis diameter such that the minor axis diameter plus a thickness of the crush apertures is equivalent to the major axis diameter. a grommet comprising a non-circular aperture (106, 108) with a multiple of crush apertures defined at least partially around the non-circular aperture (106, 108); characterised in that: the non-circular aperture (106, 108) defines a diameter along a major axis and a diameter along a minor axis, the multiple of crush apertures arranged in an arc at least partially around the major axis; and in that the multiple of crush apertures are each sized with respect to the minor axis diameter such that the minor axis diameter plus a thickness of the crush apertures is equivalent to the major axis diameter.
A purified wild type α-galactosidase A and 1-deoxygalactonojirimycin as a combined preparation for simultaneous, separate or sequential use in a method of treating an individual having Fabry disease.
A recombinant RyR2 protein for use as an anti-heart failure medicament, and which exhibits the ability to enhance the contractility of cardiomyocytes and/or to rebalance the calcium cycling, wherein the recombinant RyR2 protein is a RyR2 protein fragment or a RyR2 protein mutant, a length of the RyR2 protein fragment or a length of the RyR2 protein mutant is not less than 15 consecutive amino acid residues, and wherein the RyR2 protein fragment is one selected from the group consisting of a P2 domain protein derived from the natural RyR2 protein, a P2 domain fragment protein-1 derived from the natural RyR2 protein and a P2 domain fragment protein-2 derived from the natural RyR2 protein; the RyR2 protein mutant is a P2 mutant derived from the natural RyR2 protein; an amino acid sequence of the P2 domain protein has at least 80% identity to an amino acid sequence shown in SEQ ID NO.21; an amino acid sequence of the P2 domain fragment protein-1 has at least 80% identity to an amino acid sequence shown in SEQ ID NO.23; an amino acid sequence of the P2 domain fragment protein-2 has at least 80% identity to an amino acid sequence shown in SEQ ID NO.25; an amino acid sequence of the P2 mutant derived from the natural RyR2 protein has at least 80% identity to an amino acid sequence shown in SEQ ID NO.29. wherein the recombinant RyR2 protein is a RyR2 protein fragment or a RyR2 protein mutant, a length of the RyR2 protein fragment or a length of the RyR2 protein mutant is not less than 15 consecutive amino acid residues, and wherein the RyR2 protein fragment is one selected from the group consisting of a P2 domain protein derived from the natural RyR2 protein, a P2 domain fragment protein-1 derived from the natural RyR2 protein and a P2 domain fragment protein-2 derived from the natural RyR2 protein; the RyR2 protein mutant is a P2 mutant derived from the natural RyR2 protein; an amino acid sequence of the P2 domain protein has at least 80% identity to an amino acid sequence shown in SEQ ID NO.21; an amino acid sequence of the P2 domain fragment protein-1 has at least 80% identity to an amino acid sequence shown in SEQ ID NO.23; an amino acid sequence of the P2 domain fragment protein-2 has at least 80% identity to an amino acid sequence shown in SEQ ID NO.25; an amino acid sequence of the P2 mutant derived from the natural RyR2 protein has at least 80% identity to an amino acid sequence shown in SEQ ID NO.29.
A fixing apparatus for a sheet-fed electrophotographic printer in which an image printed by electrophotographically operating printing units (1a, 1b) on a sheet of paper traveling while being gripped by a gripper is heated and thereby fixed, characterized in that the apparatus comprises: a fixing drum positioned spaced apart and downstream from a sheet delivery site at a downstreammost side of the printing units (1a, 1b), the fixing drum being adapted to rotate at a peripheral speed identical to a speed of travel of a sheet of paper in said printing units (1a, 1b); the fixing drum having a heater internally equipped therein for heating a peripheral surface thereof; a first sprocket positioned adjoining said sheet delivery site at the downstreammost side of said printing units (1a, 1b), and a second sprocket positioned coaxially with said fixing drum, the second sprocket having a pitch circle diameter identical to a circumferential diameter of the fixing drum, the second sprocket being adapted to rotate integrally with the fixing drum; a conveyer chain having a gripper, the conveyer chain being wound around and engaging with said first and second sprockets (10 and 11) to wind and convey a sheet of paper on a peripheral surface of the fixing drum upon gripping in turn with the gripper the sheet of paper traveling from the sheet delivery site at said downstreammost side; and a pressure member adapted to be urged into rotational contact under pressure with a peripheral surface of said fixing drum, and the pressure member comprising either a plurality of pressure rollers or a plurality of pressure belts adapted to be driven to rotate or travel at a peripheral speed identical to that of the fixing drum. a fixing drum positioned spaced apart and downstream from a sheet delivery site at a downstreammost side of the printing units (1a, 1b), the fixing drum being adapted to rotate at a peripheral speed identical to a speed of travel of a sheet of paper in said printing units (1a, 1b); the fixing drum having a heater internally equipped therein for heating a peripheral surface thereof; a first sprocket positioned adjoining said sheet delivery site at the downstreammost side of said printing units (1a, 1b), and a second sprocket positioned coaxially with said fixing drum, the second sprocket having a pitch circle diameter identical to a circumferential diameter of the fixing drum, the second sprocket being adapted to rotate integrally with the fixing drum; a conveyer chain having a gripper, the conveyer chain being wound around and engaging with said first and second sprockets (10 and 11) to wind and convey a sheet of paper on a peripheral surface of the fixing drum upon gripping in turn with the gripper the sheet of paper traveling from the sheet delivery site at said downstreammost side; and a pressure member adapted to be urged into rotational contact under pressure with a peripheral surface of said fixing drum, and the pressure member comprising either a plurality of pressure rollers or a plurality of pressure belts adapted to be driven to rotate or travel at a peripheral speed identical to that of the fixing drum.
A method of detecting a possible infection of malaria in a patient, comprising - providing a digital optical microscope, - providing a sample comprising at least one red blood cell suspected of being affected by malaria obtained from the patient, - mixing the sample comprising the at least one red blood cell with a buffer solution to form the at least one red blood cell into a sphere shape to form a sphere-shaped red blood cell, and introducing the buffer solution comprising the at least one sphere-shaped red blood cell into a microfluidic device, wherein at least one part of a channel of the microfluidic device is comprised in a focal area of the digital optical microscope, or introducing the sample comprising the at least one red blood cell into a microfluidic device, and mixing the sample comprising the at least one red blood cell with a buffer solution to form the at least one red blood cell into a sphere shape to form a sphere-shaped red blood cell, wherein at least one part of a channel of the microfluidic device is comprised in a focal area of the digital optical microscope, - guiding the at least one sphere-shaped red blood cell into the focal area of the digital optical microscope, - detecting the at least one sphere-shaped red blood cell with the digital optical microscope, and - determining whether the at least one red blood cell is affected by malaria to determine whether the patient is infected by malaria. - providing a digital optical microscope, - providing a sample comprising at least one red blood cell suspected of being affected by malaria obtained from the patient, - mixing the sample comprising the at least one red blood cell with a buffer solution to form the at least one red blood cell into a sphere shape to form a sphere-shaped red blood cell, and introducing the buffer solution comprising the at least one sphere-shaped red blood cell into a microfluidic device, wherein at least one part of a channel of the microfluidic device is comprised in a focal area of the digital optical microscope, or introducing the sample comprising the at least one red blood cell into a microfluidic device, and mixing the sample comprising the at least one red blood cell with a buffer solution to form the at least one red blood cell into a sphere shape to form a sphere-shaped red blood cell, wherein at least one part of a channel of the microfluidic device is comprised in a focal area of the digital optical microscope, - guiding the at least one sphere-shaped red blood cell into the focal area of the digital optical microscope, - detecting the at least one sphere-shaped red blood cell with the digital optical microscope, and - determining whether the at least one red blood cell is affected by malaria to determine whether the patient is infected by malaria.
Battery management system (31, 41, 51), comprising: a control device having a first microcontroller arranged on a low-voltage side of the control device and a second microcontroller arranged on a high-voltage side of the control device, and a plurality of first voltage measuring units (32, 42), which are each assigned to at least one battery module of the battery, characterized by a first communication link for transmitting voltage values from the first voltage measuring units (32, 42) to the first microcontroller, a plurality of second voltage measuring units (32, 42), a second communication link (34, 39) for transmitting voltage values from the second voltage measuring units (32, 42) to the second microcontroller, wherein the first or second voltage measuring units (32, 42) are in the form of min/max measuring units in order to detect a minimum and a maximum voltage value of the battery cells in the battery modules assigned to the respective min/max measuring unit and to reject voltage measured values therebetween, characterized in that the first microcontroller on the low-voltage side is connected to a first current sensor, in particular a Hall sensor, and the second microcontroller on the high-voltage side is connected to a second current sensor which is different than the first current sensor, in particular a current sensor having a shunt resistor. a control device having a first microcontroller arranged on a low-voltage side of the control device and a second microcontroller arranged on a high-voltage side of the control device, and a plurality of first voltage measuring units (32, 42), which are each assigned to at least one battery module of the battery, characterized by a first communication link for transmitting voltage values from the first voltage measuring units (32, 42) to the first microcontroller, a plurality of second voltage measuring units (32, 42), a second communication link (34, 39) for transmitting voltage values from the second voltage measuring units (32, 42) to the second microcontroller, wherein the first or second voltage measuring units (32, 42) are in the form of min/max measuring units in order to detect a minimum and a maximum voltage value of the battery cells in the battery modules assigned to the respective min/max measuring unit and to reject voltage measured values therebetween, characterized in that the first microcontroller on the low-voltage side is connected to a first current sensor, in particular a Hall sensor, and the second microcontroller on the high-voltage side is connected to a second current sensor which is different than the first current sensor, in particular a current sensor having a shunt resistor.
A complex oxide sintered body, comprising a complex oxide consisting of indium, zirconium, yttrium, and oxygen as constitutional elements, wherein Zr/(In + Zr + Y) is 0.05 to 4.5 at% and Y/(In + Zr + Y) is 0.005 to 0.5 at% in an atomic ratio when indium, zirconium, and yttrium are designated by In, Zr, and Y, respectively, wherein the content of indium is 95 at% or more based on the total of indium, zirconium, and yttrium, and wherein the total content of impurities including compounds such as oxides having metal elements other than indium, zirconium, and yttrium is 1 at% or less in terms of the metal element based on the total of indium, zirconium, and yttrium.
Centrifuge comprising a chamber including a vessel, in which are mounted motor means intended to rotationally drive a rotating assembly, and means for measuring the speed of rotation of said rotating assembly, said chamber extending vertically between the bottom and an upper part including an opening/closing lid, said means for measuring the speed of rotation being of the type comprising a part called a sending part rotationally driven by said motor means and a second part capable of detecting a frequency of passage of said sending part at a fixed point, said sending part being carried by said rotating assembly, characterised in that said second part is mounted on said upper part, said rotating assembly carrying an RFID chip and said chamber carrying emitting/reception means capable of cooperating with said RFID chip.
A multilayer substrate comprising a plurality of stacked heat-press-bonded thermoplastic resin layers each having an in-plane conductive pattern provided on one of principal surfaces and an interlayer conductive portion (14, 14a, 14b, 14c) provided to penetrate through the thermoplastic resin layer in a thickness direction, wherein the plurality of thermoplastic resin layers include a first thermoplastic resin layer (15c, 15d, 15e) and a second thermoplastic resin layer a stacking direction of which is inverted with respect to a stacking direction of the first thermoplastic resin layer, the second thermoplastic resin layer having a thickness that is 1.5 to 5 times the thickness of the first thermoplastic resin layer, and wherein one of ends in the thickness direction of the interlayer conductive portion formed at the second thermoplastic resin layer is connected with the interlayer conductive portion of the thermoplastic resin layer adjacent to the second thermoplastic resin layer in the thickness direction such that the in-plane conductive pattern is not interposed therebetween, wherein the interlayer conductive portions (14, 14a, 14b, 14c) are formed by filled tapered through holes.
A corona igniter assembly comprising: a high voltage center electrode surrounded by a ceramic insulator and a high voltage insulator, said ceramic insulator being formed of a ceramic material and said high voltage insulator being formed of a material different from said ceramic material; a dielectric compliant insulator disposed between said ceramic insulator and said high voltage insulator; a layer of metal extending between opposite edges and applied to at least one of said insulators (28, 30, 32); and a compliant collet formed of a partially resistive material covering one of said edges of said layer of metal. a high voltage center electrode surrounded by a ceramic insulator and a high voltage insulator, said ceramic insulator being formed of a ceramic material and said high voltage insulator being formed of a material different from said ceramic material; a dielectric compliant insulator disposed between said ceramic insulator and said high voltage insulator; a layer of metal extending between opposite edges and applied to at least one of said insulators (28, 30, 32); and a compliant collet formed of a partially resistive material covering one of said edges of said layer of metal.