mhurhangee/ep-ind-claims huggingface dataset:
A planographic printing plate precursor comprising in the following order, on an aluminum support: an image recording layer; and a protective layer, wherein a thickness of the protective layer is 0.2 μm or greater, in a case where a Bekk smoothness of a surface of an outermost layer on a side opposite to a side where the image recording layer is provided is denoted by b seconds, the following Expression is satisfied: b ≤ 1000 and an arithmetic average height Sa of a surface of an outermost layer on a side where the image recording layer is provided is in a range of 0.1 μm to 20 μm, and wherein the Bekk smoothness is measured in accordance with JIS P8119 and the arithmetic average height Sa is determined in accordance with the method described in ISO 25178. an image recording layer; and a protective layer, wherein a thickness of the protective layer is 0.2 μm or greater, in a case where a Bekk smoothness of a surface of an outermost layer on a side opposite to a side where the image recording layer is provided is denoted by b seconds, the following Expression is satisfied: b ≤ 1000 and an arithmetic average height Sa of a surface of an outermost layer on a side where the image recording layer is provided is in a range of 0.1 μm to 20 μm, and wherein the Bekk smoothness is measured in accordance with JIS P8119 and the arithmetic average height Sa is determined in accordance with the method described in ISO 25178.
A cooking appliance comprising: at least an heating element configured to generate heat for cooking a food item; a user interface configured to allow selection of a cooking program for cooking the food item the appliance comprising means for selecting an increase of a cooking temperature to a maximum predetermined cooking temperature to sear a food item, while a selected cooking program is underway and without interrupting the selected cooking program that is underway, characterized in that such means for selecting an increase of cooking temperature are configured so that the selection of the increase of the cooking temperature to the maximum predetermined cooking temperature to sear a food item is temporarily disabled for a predetermined time period after its activation, regardless of whether the maximum cooking temperature is reached.
Compound of formula: wherein: X represents hydrogen or N(CH 3) 2, Y represents CH 2 or C=O, R represents hydrogen or a halogen atom, preferably F, wherein, when Y is C=O, then X represents N(CH 3) 2, or its optical isomers, mixtures thereof, and pharmaceutically acceptable salts. X represents hydrogen or N(CH 3) 2, Y represents CH 2 or C=O, R represents hydrogen or a halogen atom, preferably F, wherein, when Y is C=O, then X represents N(CH 3) 2, or its optical isomers, mixtures thereof, and pharmaceutically acceptable salts.
Protection device for outdoor ornamental plants, or other material, comprising a protection element, suitable for protecting said ornamental plants, or said other material, from the atmospheric agents and from direct sunlight, bearing elements for supporting said protection element fixing elements, for fixing said bearing elements to a supporting element, each bearing element comprising a first component, a first end of which being removably coupled with a respective fixing element and at least one second component that may be fixed to a second end of said first component, said at least one second component forming a lengthening of said first component, characterized in that said first component comprises a substantially rectilinear first part and a curvilinear second part, said first part comprising said first end and said second part comprising said second end.
A curable composition for a printed wiring board, said curable composition comprising: a filler having a specific gravity of 3 or less; a hydroxyl group-containing (meth)acrylate compound; a photopolymerization initiator; and further comprising a bifunctional (meth)acrylate compound (with no hydroxyl group) having a viscosity of 5 to 50 mPa·s at 25°C, measured according to JIS K 2283, and wherein particles contained therein have a maximum particle size of 0.1 to 5 μm, measured by using a particle size distribution analyzer with the D100 value being the maximum particle size. a filler having a specific gravity of 3 or less; a hydroxyl group-containing (meth)acrylate compound; a photopolymerization initiator; and
Method for preparation of a glass ceramic with SiO 2 as main crystal phase or a glass comprising nuclei for the crystallization of SiO 2, which comprises a step in which a melt of a starting glass comprising cerium ions is subjected to reducing conditions.
A device for reconstituting a bioactive agent and forming a paste, the device comprising: - a container containing the bioactive agent, - a first syringe containing a liquid, - a second syringe containing a paste forming material, - a connector element configured for establishing sequential fluid connections between 1) the first syringe and the container, 2) the container and the second syringe, and 3) the first and second syringes, such that the liquid can be transferred from the first syringe to the container to reconstitute the bioactive agent, whereupon the reconstituted bioactive agent can be transferred from the container into the second syringe to form a paste, and the paste can be transferred to the first syringe, and wherein the connector element comprises at least two valves (7,8) adapted to have a first arrangement providing simultaneous fluid passageway between the first syringe and the container, and the container and the second syringe, and a second arrangement providing a fluid passageway between the first and second syringe. - a container containing the bioactive agent, - a first syringe containing a liquid, - a second syringe containing a paste forming material, - a connector element configured for establishing sequential fluid connections between 1) the first syringe and the container, 2) the container and the second syringe, and 3) the first and second syringes, such that the liquid can be transferred from the first syringe to the container to reconstitute the bioactive agent, whereupon the reconstituted bioactive agent can be transferred from the container into the second syringe to form a paste, and the paste can be transferred to the first syringe, and wherein the connector element comprises at least two valves (7,8) adapted to have a first arrangement providing simultaneous fluid passageway between the first syringe and the container, and the container and the second syringe, and a second arrangement providing a fluid passageway between the first and second syringe. connections between 1) the first syringe and the container, 2) the container and the second syringe, and 3) the first and second syringes, such that the liquid can be transferred from the first syringe to the container to reconstitute the bioactive agent, whereupon the reconstituted bioactive agent can be transferred from the container into the second syringe to form a paste, and the paste can be transferred to the first syringe, and wherein the connector element comprises at least two valves (7,8) adapted to have a first arrangement providing simultaneous fluid passageway between the first syringe and the container, and the container and the second syringe, and a second arrangement providing a fluid passageway between the first and second syringe.
A dispensing device for metering and dispensing a predetermined number of multiparticulates from a container, the dispensing device comprising a chamber, the chamber including an inlet (22, 122) through which multiparticulates can enter the chamber, an overflow through which multiparticulates can leave the chamber for returning into the container and an outlet through which multiparticulates can be dispensed from the chamber, the chamber comprising a metering surface, the metering surface including at least one retaining portion therein, the, or each, retaining portion configured to be able to releasably retain a predetermined number of multiparticulates, wherein the inlet and the overflow are separate openings into the chamber, wherein the inlet includes an inlet wall that extends into the chamber to hinder multiparticulates from returning to the container through the inlet and wherein the overflow includes an overflow tube that extends, in use, into the container and that hinders multiparticulates entering the chamber via the overflow.
A body support cushion, comprising a layered arrangement of foam (12, 14) comprised of at least one layer of viscoelastic foam having a density of at least 20 kg/m3 and no more than 150 kg/m3; phase change material in the layer of viscoelastic foam, characterized in that the layered arrangement of foam (12, 14) includes a first base layer of conventional foam, a first layer of viscoelastic foam (20, 120) adjacent the first base layer, and a second layer of viscoelastic foam (18, 118) adjacent the first layer of viscoelastic foam (20, 120), wherein the first layer of viscoelastic foam (20, 120) includes reticulated foam.
Gear machine having a housing, having a shaft which has a cylindrical circumferential face, on which an external gearwheel is arranged fixedly so as to rotate with it and so as to enclose the shaft, via which the external gearwheel is mounted rotatably in the housing and which is guided out of the housing to the outside, and having a torque transmission part which is connected in a coaxial, axially fixed and fixed manner to that end of the shaft which protrudes out of the housing so as to rotate with it, characterized in that the shaft has a coaxial bore at its one end and the torque transmission part has a coaxial journal of corresponding diameter at its one end, which coaxial journal is inserted into the coaxial bore in a centred guided manner and is connected to the shaft by way of integral joining.
A hybrid electric vehicle (10;200) comprising: a drive wheel; an engine; an intake device provided upstream of an intake pipe of the engine; an electric motor (MG2;MGd); a power transmission device (16;206) configured to transmit a power of the electric motor (MG2;MGd) to the drive wheel; a driving battery; an electric-power control device configured to control an electric power transferred between the driving battery and the electric motor (MG2;MGd); and a charger configured to charge the driving battery with the electric power supplied from an external power supply, wherein the electric motor (MG2;MGd) and the power transmission device (16;206) constitute at least a part of a driving apparatus (92;208), wherein the driving apparatus (92;208) and the electric-power control device constitute a mechanical-electrical integrated unit which is housed in a single casing (40;210) and which is located in a position adjacent to the engine, wherein the charger is located on an upper side of the mechanical-electrical integrated unit in a vertical direction of the hybrid electric vehicle (10;200), and wherein the intake pipe is located on the upper side of the mechanical-electrical integrated unit in the vertical direction and is connected to an intake manifold attached to a main body of the engine. a drive wheel; an engine; an intake device provided upstream of an intake pipe of the engine; an electric motor (MG2;MGd); a power transmission device (16;206) configured to transmit a power of the electric motor (MG2;MGd) to the drive wheel; a driving battery; an electric-power control device configured to control an electric power transferred between the driving battery and the electric motor (MG2;MGd); and a charger configured to charge the driving battery with the electric power supplied from an external power supply, wherein the electric motor (MG2;MGd) and the power transmission device (16;206) constitute at least a part of a driving apparatus (92;208), wherein the driving apparatus (92;208) and the electric-power control device constitute a mechanical-electrical integrated unit which is housed in a single casing (40;210) and which is located in a position adjacent to the engine, wherein the charger is located on an upper side of the mechanical-electrical integrated unit in a vertical direction of the hybrid electric vehicle (10;200), and wherein the intake pipe is located on the upper side of the mechanical-electrical integrated unit in the vertical direction and is connected to an intake manifold attached to a main body of the engine.
A method for detecting nucleic acids of Acinetobacter comprising: contacting a sample suspected of containing Acinetobacter polynucleotides with an oligotargeter that binds to RNA or DNA of Acinetobacter and with unmodified gold nanoparticles, wherein said sample does not contain amplified Acinetobacter target polynucleotides, detecting the aggregation of gold nanoparticles, and detecting Acinetobacter in the sample when the nanoparticles aggregate in comparison with a control or a negative sample not containing Acinetobacter where the nanoparticles do not aggregate. contacting a sample suspected of containing Acinetobacter polynucleotides with an oligotargeter that binds to RNA or DNA of Acinetobacter and with unmodified gold nanoparticles, wherein said sample does not contain amplified Acinetobacter target polynucleotides, detecting the aggregation of gold nanoparticles, and detecting Acinetobacter in the sample when the nanoparticles aggregate in comparison with a control or a negative sample not containing Acinetobacter where the nanoparticles do not aggregate.
A method of driving a display panel of a display apparatus, wherein the display panel comprises a plurality of line electrodes which are divided into odd lines and even lines, wherein even line data is applied to the even lines, and odd line data is applied to the odd lines, the method comprising: logically dividing a time period for displaying a frame on the display panel into a first scanning section and a second scanning section; performing a first driving operation of driving all of the plurality of lines of the display panel in the first scanning section of a first frame and a second frame; and performing a second driving operation of driving odd lines of the display panel in the second scanning section of the first frame and driving even lines of the display panel in the scanning section of the second frame; wherein the first frame is one of a left-eye image and a right-eye image of a 3D image, and wherein the second frame is the other one of the left-eye image and the right-eye image of the 3D image; characterized in that the first driving operation comprises driving the even lines of the display panel using even line data to be applied to even lines of the display panel and driving the odd lines of the display panel using odd line data, and thus driving all of the lines of the display panel using data of all of the lines, wherein all of the lines are driven in sequence one by one, and that the second driving operation comprises driving only one of the even and the odd lines in sequence one by one in the second scanning section and using one of the even line data and the odd line data, respectively. logically dividing a time period for displaying a frame on the display panel into a first scanning section and a second scanning section; performing a first driving operation of driving all of the plurality of lines of the display panel in the first scanning section of a first frame and a second frame; and performing a second driving operation of driving odd lines of the display panel in the second scanning section of the first frame and driving even lines of the display panel in the scanning section of the second frame; wherein the first frame is one of a left-eye image and a right-eye image of a 3D image, and wherein the second frame is the other one of the left-eye image and the right-eye image of the 3D image;
A connector and sensor unit for a welding apparatus, comprising a first port configured to be connected to a first welding cable of the welding apparatus; a second port configured to be connected to a second welding cable of the welding apparatus; current sensor circuitry configured to sense a current being supplied to the first port and the second port, and to output a corresponding current sense signal; voltage sensing circuitry configured to sense a voltage between the first port and the second port, and to output a corresponding voltage sense signal; and supply power circuitry configured to generate a predetermined voltage for at least the current sensor circuitry, wherein the supply power circuitry is configured to receive power via the first port and second port when the first welding cable and the second welding cable are connected thereto, characterised in that the connector and sensor unit further comprises first and second inductors (L1, L2), and the power is received via, respectively, the first inductor and the second inductor (L1,L2), and the first inductor and the second inductor are configured to dampen a high frequency arc ignition voltage, generated by the welding apparatus and carried by the first welding cable and the second welding cable, by no more than 50%. a first port configured to be connected to a first welding cable of the welding apparatus; a second port configured to be connected to a second welding cable of the welding apparatus; current sensor circuitry configured to sense a current being supplied to the first port and the second port, and to output a corresponding current sense signal; voltage sensing circuitry configured to sense a voltage between the first port and the second port, and to output a corresponding voltage sense signal; and supply power circuitry configured to generate a predetermined voltage for at least the current sensor circuitry, wherein the supply power circuitry is configured to receive power via the first port and second port when the first welding cable and the second welding cable are connected thereto, characterised in that the connector and sensor unit further comprises first and second inductors (L1, L2), and the power is received via, respectively, the first inductor and the second inductor (L1,L2), and the first inductor and the second inductor are configured to dampen a high frequency arc ignition voltage, generated by the welding apparatus and carried by the first welding cable and the second welding cable, by no more than 50%.
A rechargeable battery comprising: an electrode assembly including a first electrode plate, a second electrode plate, and a separator between the first electrode plate and the second electrode plate; a case accommodating the electrode assembly; a first electrode terminal and a second electrode terminal electrically connected to the first electrode plate and the second electrode plate, respectively, and protruding outside the case; and a first terminal plate and a second terminal plate positioned outside the case and coupled to the first electrode terminal and the second electrode terminal, respectively; and a first collector plate and a second collector plate at opposite sides of the electrode assembly and electrically connecting the first electrode plate and the second electrode plate to the first electrode terminal and the second electrode terminal, respectively, characterised in that one of the first and second terminal plates comprises a first fuse part and the first collector plate comprises a second fuse part, and that the first fuse part has a greater electrical resistance than the second fuse part. an electrode assembly including a first electrode plate, a second electrode plate, and a separator between the first electrode plate and the second electrode plate; a case accommodating the electrode assembly; a first electrode terminal and a second electrode terminal electrically connected to the first electrode plate and the second electrode plate, respectively, and protruding outside the case; and a first terminal plate and a second terminal plate positioned outside the case and coupled to the first electrode terminal and the second electrode terminal, respectively; and a first collector plate and a second collector plate at opposite sides of the electrode assembly and electrically connecting the first electrode plate and the second electrode plate to the first electrode terminal and the second electrode terminal, respectively, characterised in that one of the first and second terminal plates comprises a first fuse part and the first collector plate comprises a second fuse part, and that the first fuse part has a greater electrical resistance than the second fuse part.
A base plate for an ostomy appliance, the base plate comprising: - a top layer; - a first adhesive layer comprising one or more water soluble or water swellable hydrocolloids; and - an electrode assembly comprising a plurality of electrodes; - a monitor interface configured for connecting the base plate to a monitor device, the monitor interface comprising a plurality of terminals electrically connected to the plurality of electrodes and configured to connect with respective terminals of the monitor device, characterised in that the monitor interface comprises a coupling part, the coupling part comprising an elastically deformable part configured for coupling the monitor device and the base plate. - a top layer; - a first adhesive layer comprising one or more water soluble or water swellable hydrocolloids; and - an electrode assembly comprising a plurality of electrodes; - a monitor interface configured for connecting the base plate to a monitor device, the monitor interface comprising a plurality of terminals electrically connected to the plurality of electrodes and configured to connect with respective terminals of the monitor device,
A method of processing a semiconductor device comprising steps of: (a) providing a substrate in a processing chamber; wherein the substrate comprises at least one patterned dielectric layer and at least one patterned conductive metal layer; (b) introducing a precursor to the processing chamber to selectively deposit an adhesion layer at least on the at least one patterned conductive metal layer; (bc) exposing the substrate having the adhesion layer to a post-treatment selected from the group consisting of H 2 plasma, NH 3 plasma, H 2 /He plasma, H 2 /N 2 plasma and mixtures thereof; and (c) depositing a dielectric barrier layer on the substrate having the adhesion layer; wherein the precursor is selected from: an organometallic precursor in the group consisting of organozinc, organosilver, organochromium, organotin, organomanganese, organonickel, organocobalt, organoaluminum; tin hydride (SnH 4); tin deuteride (SnD 4); and mixtures thereof. (a) providing a substrate in a processing chamber; wherein the substrate comprises at least one patterned dielectric layer and at least one patterned conductive metal layer; (b) introducing a precursor to the processing chamber to selectively deposit an adhesion layer at least on the at least one patterned conductive metal layer; (bc) exposing the substrate having the adhesion layer to a post-treatment selected from the group consisting of H 2 plasma, NH 3 plasma, H 2 /He plasma, H 2 /N 2 plasma and mixtures thereof; and (c) depositing a dielectric barrier layer on the substrate having the adhesion layer;