mhurhangee/ep-ind-claims huggingface dataset:
A sheet package, comprising: sheets as print mediums for a printer; and a package member surrounding the sheets which have been stacked up, the sheet package being configured so that the sheets can be set in the printer together with the package member exposing part of the sheets, wherein the package member is integrally provided with a base having a rectangular shape and substantially the same size as the sheets and a flap part folded with respect to the base, the flap part is capable of exposing part of the sheets by being opened when the sheet package is set in the printer and is also capable of covering the exposed part of the sheets by being closed when the sheet package is not used, the flap part can be set in the state exposing part of the sheets by folding a distal part of the base together with the flap part to one side, the flap part can be set in the state covering the exposed part of sheets again by folding the distal part of the base together with the flap part to the other side; characterized in that the package member includes first and second wrapping parts (41, 42) folded with respect to the base, and tear-off parts, each tear-off part is formed across a boundary between the base and each wrapping part (41, 42); and in that the package member is configured so that the distal part of the base together with the flap part will become foldable when the tear-off parts of the package member in mint condition are cut or pulled off. sheets as print mediums for a printer; and a package member surrounding the sheets which have been stacked up, the sheet package being configured so that the sheets can be set in the printer together with the package member exposing part of the sheets, wherein the package member is integrally provided with a base having a rectangular shape and substantially the same size as the sheets and a flap part folded with respect to the base, the flap part is capable of exposing part of the sheets by being opened when the sheet package is set in the printer and is also capable of covering the exposed part of the sheets by being closed when the sheet package is not used, the flap part can be set in the state exposing part of the sheets by folding a distal part of the base together with the flap part to one side, the flap part can be set in the state covering the exposed part of sheets again by folding the distal part of the base together with the flap part to the other side; characterized in that the package member includes first and second wrapping parts (41, 42) folded with respect to the base, and tear-off parts, each tear-off part is formed across a boundary between the base and each wrapping part (41, 42); and in that the package member is configured so that the distal part of the base together with the flap part will become foldable when the tear-off parts of the package member in mint condition are cut or pulled off.
Chlorosilylarylgermanes of the general formula XGe(Y 2)-SiCl 3 where X = Y or X = [-Ge(Y 2)-SiCl 3] and the Y groups are each independently phenyl (Ph).
Method for the automated quantification of an analyte in a test sample, particularly in a liquid test sample, comprising the following method steps • specifying an analyte to be quantified; • supplying a 1D-NMR spectrum; • supplying a 2D-NMR spectrum, in particular a JRES, HMBC, HSQC, COSY, and/or DOSY spectrum; • supplying a piece of information about an analyte to be quantified; • determining a chemical shift of an NMR signal of the analyte to be quantified from the 2D-NMR spectrum on the basis of the supplied piece of information; • determining the expected peak positions of the NMR signal of the analyte to be quantified, in particular of a singlet and/or multiplet of the analyte to be quantified; • determining the actual peak positions from the 1D-NMR spectrum; • determining the peak positions of interfering signals on the basis of the expected peak positions and actual peak positions; • modelling the 1D-NMR spectrum on the basis of the peak positions determined for interfering signals, on the basis of the determined chemical shift, and on the basis of the supplied piece of information; • integrating the modelled 1D-NMR spectrum; • quantifying the analyte through internal or external referencing. • specifying an analyte to be quantified; • supplying a 1D-NMR spectrum; • supplying a 2D-NMR spectrum, in particular a JRES, HMBC, HSQC, COSY, and/or DOSY spectrum; • supplying a piece of information about an analyte to be quantified; • determining a chemical shift of an NMR signal of the analyte to be quantified from the 2D-NMR spectrum on the basis of the supplied piece of information; • determining the expected peak positions of the NMR signal of the analyte to be quantified, in particular of a singlet and/or multiplet of the analyte to be quantified; • determining the actual peak positions from the 1D-NMR spectrum; • determining the peak positions of interfering signals on the basis of the expected peak positions and actual peak positions; • modelling the 1D-NMR spectrum on the basis of the peak positions determined for interfering signals, on the basis of the determined chemical shift, and on the basis of the supplied piece of information; • integrating the modelled 1D-NMR spectrum; • quantifying the analyte through internal or external referencing.
A power supply comprising: a voltage converter circuit which converts an input voltage (Vin) into an output voltage (Vout)and outputs the output voltage (Vout); characterized by the following features: a voltage controller which controls the voltage converter circuit in response to one of a first feedback voltage and a second feedback voltage; a feedback terminal which supplies the first feedback voltage; an internal voltage divider circuit which supplies the second feedback voltage; and a switch unit which transfers the one of the first feedback voltage and the second feedback voltage to the voltage controller, wherein the voltage controller is connected to a first terminal of the switch unit, the internal voltage divider circuit is connected to a second terminal and to a third terminal of the switch unit, and the feedback terminal is connected to a fourth terminal of the switch unit. a voltage converter circuit which converts an input voltage (Vin) into an output voltage (Vout)and outputs the output voltage (Vout); characterized by the following features: a voltage controller which controls the voltage converter circuit in response to one of a first feedback voltage and a second feedback voltage; a feedback terminal which supplies the first feedback voltage; an internal voltage divider circuit which supplies the second feedback voltage; and a switch unit which transfers the one of the first feedback voltage and the second feedback voltage to the voltage controller, wherein the voltage controller is connected to a first terminal of the switch unit, the internal voltage divider circuit is connected to a second terminal and to a third terminal of the switch unit, and the feedback terminal is connected to a fourth terminal of the switch unit. a voltage controller which controls the voltage converter circuit in response to one of a first feedback voltage and a second feedback voltage; a feedback terminal which supplies the first feedback voltage; an internal voltage divider circuit which supplies the second feedback voltage; and a switch unit which transfers the one of the first feedback voltage and the second feedback voltage to the voltage controller, wherein the voltage controller is connected to a first terminal of the switch unit, the internal voltage divider circuit is connected to a second terminal and to a third terminal of the switch unit, and the feedback terminal is connected to a fourth terminal of the switch unit.
An exfoliating facial pad, comprising: a top layer of a first fabric weight; a bottom layer of a second fabric weight, the top and bottom layers comprising hydroentangled, non-woven fibrous material; and a coarse fabric layer of a third fabric weight sandwiched between the top layer and the bottom layer, the coarse fabric layer comprising undulations of exfoliating peaks and absorbent valleys and is configured to strengthen the pad when sandwiched between the top layer and the bottom layer, wherein the coarse fabric layer further comprises coarse fibers in a loose weave in the range of 5 to 40 yarns per inch in warp or weft directions, wherein warp fibers and weft fibers form a loose weave of 1 count to 30 count in English count units; and wherein the top layer, bottom layer, and the coarse fabric layer are pinched together along the edges. a top layer of a first fabric weight; a bottom layer of a second fabric weight, the top and bottom layers comprising hydroentangled, non-woven fibrous material; and a coarse fabric layer of a third fabric weight sandwiched between the top layer and the bottom layer, the coarse fabric layer comprising undulations of exfoliating peaks and absorbent valleys and is configured to strengthen the pad when sandwiched between the top layer and the bottom layer, wherein the coarse fabric layer further comprises coarse fibers in a loose weave in the range of 5 to 40 yarns per inch in warp or weft directions, wherein warp fibers and weft fibers form a loose weave of 1 count to 30 count in English count units; and wherein the top layer, bottom layer, and the coarse fabric layer are pinched together along the edges.
A sauna stove comprising: an outer mantle; and a lid; wherein the lid comprises a lid plate that covers a stone drum of the sauna stove and that is made of stone; glass; glass ceramic or ceramic material; characterized in that the lid is formed of the lid plate and a lid plate frame; the lid plate frame positions outside the outer mantle of the sauna stove when the lid is closed and is made of a metal; and the lid is configured such that when the lid is closed, the lid plate rests on its own weight on the outer mantle of the sauna stove. an outer mantle; and a lid; wherein the lid comprises a lid plate that covers a stone drum of the sauna stove and that is made of stone; glass; glass ceramic or ceramic material; characterized in that the lid is formed of the lid plate and a lid plate frame; the lid plate frame positions outside the outer mantle of the sauna stove when the lid is closed and is made of a metal; and the lid is configured such that when the lid is closed, the lid plate rests on its own weight on the outer mantle of the sauna stove. the lid is formed of the lid plate and a lid plate frame; the lid plate frame positions outside the outer mantle of the sauna stove when the lid is closed and is made of a metal; and the lid is configured such that when the lid is closed, the lid plate rests on its own weight on the outer mantle of the sauna stove.
A composition comprising SIgA and at least one probiotic micro-organism, wherein the composition is a food composition intended for consumption by humans, an animal food product, or a pharmaceutical composition, wherein the SIgA and at least one probiotic are present in the form of a complex, and wherein said probiotic is selected from the group consisting of Bifidobacterium and Lactobacillus.
Holding brake for a lift installation, comprising brake shoes (23.1, 23.2), which are actuable by means of actuators (31.1, 31.2) and which in the case of braking produce a braking force at a guide rail of the lift installation, characterised in that a locking mechanism with a traction device is provided, wherein the brake shoes (23.1, 23.2) are arranged at a cross member which in the case of braking is movable relative to the traction device and wherein the traction device amplifies the braking force of the brake shoes (23.1, 23.2) at the guide rail by a movement relative to the cross member.
Process for forming an orthodontic wire from a memory shape material into a target geometry for a fitting introduction into a patient specific orthodontic apparatus having the following steps: a. Generating a patient specific target set-up of the upper or lower jaw of the patient, b. arranging brackets on teeth to be treated in the target set-up, c. producing a two-dimensional photo as a 2-dim representation of the target set-up with brackets in a top view, d. loading the representation into a data processing apparatus, e. identifying the arrangement of the slots of the brackets in the representation, f. exporting of data for the arrangement of the slots from the data processing apparatus, g. generating a baking form for the shape-memory wire, wherein in the baking form with the aid of the data wire fixing sections are generated which hold the wire in areas corresponding to the slots during the baking, h. introducing the wire into the baking form and i. baking the wire, wherein for step c) into the target set-up a strip of light is projected that shows the focusing level of the optics for generating the photo and the strip of light is projected into the level of the slots, whereby the slots in the representation are shown for sharp reading. a. Generating a patient specific target set-up of the upper or lower jaw of the patient, b. arranging brackets on teeth to be treated in the target set-up, c. producing a two-dimensional photo as a 2-dim representation of the target set-up with brackets in a top view, d. loading the representation into a data processing apparatus, e. identifying the arrangement of the slots of the brackets in the representation, f. exporting of data for the arrangement of the slots from the data processing apparatus, g. generating a baking form for the shape-memory wire, wherein in the baking form with the aid of the data wire fixing sections are generated which hold the wire in areas corresponding to the slots during the baking, h. introducing the wire into the baking form and i. baking the wire,
A semiconductor device comprising: a support member having a pair of first conductive materials and a pair of second conductive materials on an insulating substrate; and a sealing member covering a semiconductor element arranged on the support member; wherein the support member has an insulating portion where the insulating substrate is exposed between the pair of the first conductive materials, and regions of the pair of the second conductive materials have a strip shape extended in a longitudinal direction of the insulating substrate and are arranged at the sides of the regions of the first conductive materials with the insulating portion interposed therebetween, and the sealing member is disposed on a region including at least a part of a region of the first conductive material or the second conductive material, wherein a shape of the region of the pair of the first conductive materials is in line symmetry with the region shape of the other region of the pair of the first conductive materials with respect to an X-X line passing through the center of a region whereon the sealing member is disposed in plan view, and a shape of the regions of the pair of the second conductive materials is in line symmetry with the region shape of the other region of the pair of the second conductive materials with respect to a Y-Y line perpendicular to the X-X line and passing through the center of the region whereon the sealing member is disposed in the plan view. a support member having a pair of first conductive materials and a pair of second conductive materials on an insulating substrate; and a sealing member covering a semiconductor element arranged on the support member; wherein the support member has an insulating portion where the insulating substrate is exposed between the pair of the first conductive materials, and regions of the pair of the second conductive materials have a strip shape extended in a longitudinal direction of the insulating substrate and are arranged at the sides of the regions of the first conductive materials with the insulating portion interposed therebetween, and the sealing member is disposed on a region including at least a part of a region of the first conductive material or the second conductive material, wherein a shape of the region of the pair of the first conductive materials is in line symmetry with the region shape of the other region of the pair of the first conductive materials with respect to an X-X line passing through the center of a region whereon the sealing member is disposed in plan view, and a shape of the regions of the pair of the second conductive materials is in line symmetry with the region shape of the other region of the pair of the second conductive materials with respect to a Y-Y line perpendicular to the X-X line and passing through the center of the region whereon the sealing member is disposed in the plan view.
A method of manufacturing an organic light emitting display device, comprising: - calculating a sub-pixel having a highest peak-luminance current density among a red sub-pixel, a blue sub-pixel, a green sub-pixel, and a white sub-pixel, if the red sub-pixel, the blue sub-pixel, the green sub-pixel and the white sub-pixel have the same area, the peak-luminance current density being a current density necessary for the sub-pixel for realizing a predetermined peak luminance; - calculating a sub-pixel having a highest average use current density among the red sub-pixel, blue sub-pixel, green sub-pixel, and white sub-pixel, if the red sub-pixel, the blue sub-pixel, the green sub-pixel and the white sub-pixel have the same area, the average use current density being a current density that is averagely required according to an accumulated use time and the frequency of use of each sub-pixel, in reproducing general images; characterized in - determining the sub-pixel having the highest peak-luminance current density to have the greatest area and determining the sub-pixel of the other sub-pixels having the highest average use current density to have the second greatest area; or the sub-pixel having the highest average use current density to have the greatest area and determining the sub-pixel of the other sub-pixels having the highest peak-luminance current density to have the second greatest area - calculating a sub-pixel having a highest peak-luminance current density among a red sub-pixel, a blue sub-pixel, a green sub-pixel, and a white sub-pixel, if the red sub-pixel, the blue sub-pixel, the green sub-pixel and the white sub-pixel have the same area, the peak-luminance current density being a current density necessary for the sub-pixel for realizing a predetermined peak luminance; - calculating a sub-pixel having a highest average use current density among the red sub-pixel, blue sub-pixel, green sub-pixel, and white sub-pixel, if the red sub-pixel, the blue sub-pixel, the green sub-pixel and the white sub-pixel have the same area, the average use current density being a current density that is averagely required according to an accumulated use time and the frequency of use of each sub-pixel, in reproducing general images; characterized in - determining the sub-pixel having the highest peak-luminance current density to have the greatest area and determining the sub-pixel of the other sub-pixels having the highest average use current density to have the second greatest area;
A friction material comprising a fiber base material, a friction modifying material and a binder, wherein the friction modifying material comprises alumina particles comprising, as a main component, θ-alumina particles in a ratio of 50 mass% or more, and the θ-alumina particles are contained in an amount of 1 mass% or more in the friction material; wherein the θ-alumina particles have a specific surface area of 40 m 2 /g or more and 120 m 2 /g or less determined by a BET method using nitrogen gas adsorption.
Fluid circulator with a motor-driven pump, intended for the movement of fluid particularly in heating and/or cooling systems comprising: a pump body comprising an impeller for the movement of said fluid; a motor body comprising an electric motor (7, 8, 9) for putting said impeller into rotation around a rotation axis (X-X); an end cover for said motor body for the containment of at least one electronic board of said circulator; said end cover being shaped as a cup-like lid adapted to be fitted on the motor body to enclose a housing compartment for said electronic board; electronic power devices mounted onto said board facing a closure wall of said cup-like lid; at least one portion of said closure wall being lowered towards said electronic board and externally provided with cooling fins extended in parallel to said rotation axis (X-X) to form a heat sink or dissipator; a layer of a good heat conductive material being provided in contact between at least some of said electronic power devices and the lowered portion of said closure wall; the lowered portion of said closure wall not exceeding half portion of said closure wall. a pump body comprising an impeller for the movement of said fluid; a motor body comprising an electric motor (7, 8, 9) for putting said impeller into rotation around a rotation axis (X-X); an end cover for said motor body for the containment of at least one electronic board of said circulator; said end cover being shaped as a cup-like lid adapted to be fitted on the motor body to enclose a housing compartment for said electronic board; electronic power devices mounted onto said board facing a closure wall of said cup-like lid; at least one portion of said closure wall being lowered towards said electronic board and externally provided with cooling fins extended in parallel to said rotation axis (X-X) to form a heat sink or dissipator; a layer of a good heat conductive material being provided in contact between at least some of said electronic power devices and the lowered portion of said closure wall; the lowered portion of said closure wall not exceeding half portion of said closure wall.
A circuit for ground disconnection protection, comprising: a first power metal oxide semiconductor field-effect transistor (MOSFET) having a first drain terminal coupled to a first ground, a first source terminal, and a first gate terminal; a second power MOSFET having a second drain terminal coupled to a second ground, a second source terminal coupled to the first source terminal, and a second gate terminal coupled to the first gate terminal; a first diode having a first cathode coupled to the first gate terminal, and having a first anode; a second diode having a second cathode coupled to the first anode, and a second anode coupled to the first drain terminal; a third diode having a third cathode coupled to the second gate terminal, and having a third anode; a fourth diode having a fourth cathode coupled to the third anode, and a fourth anode coupled to the second drain terminal; and a resistor coupled at a first terminal to the gate terminals of the first and second power MOSFETs (511, 512), and coupled at a second terminal to the source terminals of the first and second power MOSFETs (511, 512). a first power metal oxide semiconductor field-effect transistor (MOSFET) having a first drain terminal coupled to a first ground, a first source terminal, and a first gate terminal; a second power MOSFET having a second drain terminal coupled to a second ground, a second source terminal coupled to the first source terminal, and a second gate terminal coupled to the first gate terminal; a first diode having a first cathode coupled to the first gate terminal, and having a first anode; a second diode having a second cathode coupled to the first anode, and a second anode coupled to the first drain terminal; a third diode having a third cathode coupled to the second gate terminal, and having a third anode; a fourth diode having a fourth cathode coupled to the third anode, and a fourth anode coupled to the second drain terminal; and a resistor coupled at a first terminal to the gate terminals of the first and second power MOSFETs (511, 512), and coupled at a second terminal to the source terminals of the first and second power MOSFETs (511, 512).