mhurhangee/ep-ind-claims huggingface dataset:
Perforating apparatus of at least one web advancing along an advancement path at an advancing velocity, comprising at least one first deformation member provided with a plurality of openings and at least one second deformation member provided with a plurality of protruding elements, characterized in that said first deformation member and said second deformation member are configured to position themselves at least in a tracking position, wherein said first deformation member and said second deformation member are placed on opposite sides of said advancement path and facing each other, and to position themselves in a coupling position, wherein said protruding elements are coupled with said openings orthogonally to said advancement path to make, in use, a plurality of holes in a zone of said web, wherein said first deformation member and said second deformation member, in said tracking position and in said coupling position, are configured to advance along a portion parallel to said advancement path at said advancing velocity so as to make said plurality of holes with substantially zero relative velocities, at least along said advancement path, between said first deformation member and said web and between said second deformation member and said web.
A microplate (100, 1000) for polymerase chain reaction, comprising: a substrate comprising a metallic material (103, 1002) for heating PCR samples and a plurality of finger-like projections having a corrugated surface in a form of a wave pattern that defines a crinkle, wherein the corrugated surface of the plurality of finger-like projections is configured to come in contact with bus bars for facilitating a flow of electrical current through the substrate during PCR; a barrier layer disposed adjacent to the substrate, wherein the barrier layer is formed of a first polymeric material; and one or more wells sealed to the barrier layer, wherein the one or more wells is formed of a second polymeric material, wherein the substrate provides a PCR ramp rate of at least 5°C/second upon the flow of electrical current through the substrate. a substrate comprising a metallic material (103, 1002) for heating PCR samples and a plurality of finger-like projections having a corrugated surface in a form of a wave pattern that defines a crinkle, wherein the corrugated surface of the plurality of finger-like projections is configured to come in contact with bus bars for facilitating a flow of electrical current through the substrate during PCR; a barrier layer disposed adjacent to the substrate, wherein the barrier layer is formed of a first polymeric material; and one or more wells sealed to the barrier layer, wherein the one or more wells is formed of a second polymeric material, wherein the substrate provides a PCR ramp rate of at least 5°C/second upon the flow of electrical current through the substrate.
A device for heating or cooling a body part, comprising a body having an elongate treatment cavity into which a body part can be placed for treatment, a first chamber having an inlet and an outlet for a heating or cooling fluid, wherein the first chamber is formed by a space between an inner wall of the first chamber in the form of a cylindrical surface and an outer wall of the first chamber in the form of a cylindrical surface, wherein the inner wall of the first chamber forms the external boundary of at least part of the treatment cavity, whereby heating or cooling fluid in the first chamber heats or cools a body part in the treatment cavity, and wherein the treatment cavity is open at both ends so that in use a body part can be placed into one end of the treatment cavity and emerge from the other end, wherein the device additionally comprises means for compressing, in use, the first chamber into the body part, wherein the means for compressing comprises a second chamber completely surrounding the first chamber and having an inlet and an outlet for a pressurising fluid, wherein the second chamber is formed by a space between an inner wall of the second chamber in the form of a cylindrical surface and an outer wall of the second chamber in the form of a cylindrical surface, whereby putting said fluid under pressure in the second chamber compresses the first chamber into the body part.
A method of decoding at least a part of an image comprising a plurality of samples, each sample comprising a luma component and first and second chroma components, the encoded image comprising at least one filtering parameter, the method comprising decoding the first chroma component and the second chroma component of at least one encoded sample to provide a first chroma component and a second chroma component of at least one reconstructed sample; decoding a set of filtering parameters for performing sample adaptive offset filtering on the image part, the decoded set comprising a sample adaptive offset type parameter, indicating whether edge-type, band-type or no sample adaptive offset loop filtering is used for the at least one reconstructed sample, and also comprising at least one further filtering parameter; performing sample adaptive offset loop filtering on the at least one reconstructed sample in a loop filter; characterised in that the filtering comprises using said sample adaptive offset type parameter as a common filtering parameter for filtering both the first chroma component and the second chroma component of the at least one reconstructed sample, and using said further filtering parameter as a dedicated filtering parameter for filtering an individual one of the first and second chroma components.
A vehicle detection system, comprising: a transverse detector arm capable of being disposed on the ground; two vertical detector arms disposed at both ends of the transverse detector arm; a radiation source located above the transverse detector arm; a plurality of transverse detectors disposed within the transverse detector arm and laid along a length direction of the transverse detector arm for receiving radiation emitted by the radiation source; and a plurality of vertical detectors symmetrically disposed on the two vertical detector arms, each of the vertical detectors being disposed towards a center point of the radiation source for receiving radiation emitted by the radiation source, characterized in that each angle between a mounting surface of each of the transverse detectors and a mounting surface of the transverse detector arm is 0 degrees. a transverse detector arm capable of being disposed on the ground; two vertical detector arms disposed at both ends of the transverse detector arm; a radiation source located above the transverse detector arm; a plurality of transverse detectors disposed within the transverse detector arm and laid along a length direction of the transverse detector arm for receiving radiation emitted by the radiation source; and a plurality of vertical detectors symmetrically disposed on the two vertical detector arms, each of the vertical detectors being disposed towards a center point of the radiation source for receiving radiation emitted by the radiation source, characterized in that each angle between a mounting surface of each of the transverse detectors and a mounting surface of the transverse detector arm is 0 degrees.
A method for manufacturing a black or anthracite coloured material comprising at least 18 carats of gold, formed from an assembly of gold nanoparticles in a titanium dioxide matrix; the method comprising the steps of: providing in a reactor a mixture comprising a gold precursor, a titanium dioxide precursor, and a solvent including water, an alcoholic solvent, and a polar aprotic solvent; heating the mixture to a first temperature so as to reduce the gold precursor and form the titanium dioxide matrix; once the mixture has reached the first temperature, adding a hydrazine compound to the mixture, after addition of the hydrazine compound, maintaining the mixture at the first temperature, the heating step being combined with stirring, so as to obtain a suspension formed by the gold particles embedded in titanium dioxide; after reaction of the hydrazine compound with the mixture, separating said material by a filtration step to recover a powder comprising the gold particles in the titanium dioxide matrix; compacting the powder using a sintering process; in which the black or anthracite colour is characterised in the CIELAB color space L*a*b* by the parameters 0 < a* < 5, 0 < b* < 8 and 30 < L* < 70. providing in a reactor a mixture comprising a gold precursor, a titanium dioxide precursor, and a solvent including water, an alcoholic solvent, and a polar aprotic solvent; heating the mixture to a first temperature so as to reduce the gold precursor and form the titanium dioxide matrix; once the mixture has reached the first temperature, adding a hydrazine compound to the mixture, after addition of the hydrazine compound, maintaining the mixture at the first temperature, the heating step being combined with stirring, so as to obtain a suspension formed by the gold particles embedded in titanium dioxide; after reaction of the hydrazine compound with the mixture, separating said material by a filtration step to recover a powder comprising the gold particles in the titanium dioxide matrix; compacting the powder using a sintering process; in which the black or anthracite colour is characterised in the CIELAB color space L*a*b* by the parameters 0 < a* < 5, 0 < b* < 8 and 30 < L* < 70.
A method for continuous production of bio-coke to be used in metallurgical industry, characterized in that the method comprises: - providing biomass raw material, - removing mechanical impurities from the biomass raw material, - pre-comminuting the biomass raw material, - pre-drying the biomass raw material, - comminuting the biomass raw material into a homogeneous particle-like form, - drying the biomass raw material comminuted into a particle-like form, and - carbonizing the biomass raw material at a temperature of 650 to 1000°C to obtain bio-coke. - providing biomass raw material, - removing mechanical impurities from the biomass raw material, - pre-comminuting the biomass raw material, - pre-drying the biomass raw material, - comminuting the biomass raw material into a homogeneous particle-like form, - drying the biomass raw material comminuted into a particle-like form, and - carbonizing the biomass raw material at a temperature of 650 to 1000°C to obtain bio-coke.
Multiphase polymer composition comprising - a comb copolymer which is obtainable by polymerizing a mixture containing acrylic acid, butyl acrylate, 2-ethylhexyl acrylate and isobornyl acrylate in the presence of at least one macromer selected from the group consisting of polymerizable ethylene-butylene, ethylene-propylene, ethylene-butylene-propylene and isobutylene macromers, and which forms a continuous acrylate phase and a discontinuous hydrocarbon phase Kw, - and at least one hydrocarbon compound soluble in said hydrocarbon phase Kw of said comb copolymer, wherein the multiphase polymer composition comprises a continuous acrylate phase having a static glass transition temperature Tg(Ac), as measured by the DSC method, and a discontinuous hydrocarbon phase Kw1 having a static glass transition temperature Tg, as measured by the DSC method, and wherein the said static glass transition temperatures Tg and Tg(Ac) of the polymer composition differ by 35 to 60 kelvins. - a comb copolymer which is obtainable by polymerizing a mixture containing acrylic acid, butyl acrylate, 2-ethylhexyl acrylate and isobornyl acrylate in the presence of at least one macromer selected from the group consisting of polymerizable ethylene-butylene, ethylene-propylene, ethylene-butylene-propylene and isobutylene macromers, and which forms a continuous acrylate phase and a discontinuous hydrocarbon phase Kw, - and at least one hydrocarbon compound soluble in said hydrocarbon phase Kw of said comb copolymer,
Display mechanism, for a timepiece movement, including a wheel for displaying a first quantity comprising a shaft intended to carry a member for displaying said first quantity and carrying, constrained to rotate with it, a first wheel and a cam (112, 212) comprising at least one volute-shaped portion, the display mechanism being arranged so as to be able to have an active first state in which said first wheel is intended to have a kinetic connection with a driving wheel of the timepiece movement to be driven in rotation as a function of said first quantity to be displayed, and a zero reset second state in which the kinematic connection is neutralized to allow said first wheel to return to a predefined position, associated with a predefined position of the display member, the display mechanism further including a feeler-spindle (116, 216) adapted to cooperate with the perimeter of said cam (112, 212) and held bearing against the perimeter of said cam (112, 212) in said first state, said feeler-spindle (116, 216) and the perimeter of said cam (112, 212) being arranged and sized so that said feeler-spindle (116, 216) exerts on said cam (112, 212), in said second state, a return force having a non-radial component adapted to return said first wheel to said predefined position.
A holding device of multi-part design for attaching plate-like wall or ceiling cladding elements to an on-site substrate, comprising a base part that can be fastened to the substrate and at least one bracket part that can be connected to the base part, which bracket part can be connected to a holding profile for receiving at least one plate-like wall or ceiling cladding element, wherein the base part has an elongate base plate and at least one vertical leg perpendicular thereto for connecting the base part to the bracket part, wherein the leg is arranged in an inwardly displaced manner in each case in respect of a first and a second longitudinal edge (5.1, 5.2) of the base plate, characterized in that the base part is a stamped/bent part and the leg delimits a recess formed in the base plate of the base part, which recess extends from the leg to the first longitudinal edge (5.1) of the base plate.
A control method for a smart home system, wherein the smart home system comprises a smart socket and a clothing treatment apparatus, and the clothing treatment apparatus is electrically connected with the smart socket; the control method comprises: detecting electricity consumption parameters of the clothing treatment apparatus through the smart socket; determining operation information of the clothing treatment apparatus based on the electricity consumption parameters; determining a detergent consumption amount of the clothing treatment apparatus based on the operation information; calculating a detergent remaining amount of the clothing treatment apparatus based on the detergent consumption amount; and selectively prompting that the detergent is insufficient through a reminder device based on a calculation result. detecting electricity consumption parameters of the clothing treatment apparatus through the smart socket; determining operation information of the clothing treatment apparatus based on the electricity consumption parameters; determining a detergent consumption amount of the clothing treatment apparatus based on the operation information; calculating a detergent remaining amount of the clothing treatment apparatus based on the detergent consumption amount; and selectively prompting that the detergent is insufficient through a reminder device based on a calculation result.
A sealing valve plug structure for a washing machine having a drum, said sealing valve plug structure comprising: a valve plug column configured to correspond to a drain opening formed in a side wall of the inner drum, and a counterweight hinged to an upper end of the valve plug column, a sealing valve installation structure fixedly installable on the side wall of the inner drum, and a reset spring clamped between the sealing valve installation structure and the valve plug column, characterized in that the sealing valve installation structure includes a support plate installable on an inner side wall of the inner drum with a gap between the support plate and the side wall of the inner drum, to form a space for the valve plug of the sealing valve to move up and down, a through hole configured to correspond to the drain opening formed in the side wall of the inner drum is formed in a middle part of the support plate, and an upper side of the support plate is fixedly provided with a mounting sleeve, and an inner through hole of the mounting sleeve and the through hole formed in the support plate are coaxially arranged, so that the valve plug column of the sealing valve is coaxially arranged in the inner through hole and moveable up and down. a valve plug column configured to correspond to a drain opening formed in a side wall of the inner drum, and a counterweight hinged to an upper end of the valve plug column, a sealing valve installation structure fixedly installable on the side wall of the inner drum, and a reset spring clamped between the sealing valve installation structure and the valve plug column, characterized in that the sealing valve installation structure includes a support plate installable on an inner side wall of the inner drum with a gap between the support plate and the side wall of the inner drum, to form a space for the valve plug of the sealing valve to move up and down, a through hole configured to correspond to the drain opening formed in the side wall of the inner drum is formed in a middle part of the support plate, and an upper side of the support plate is fixedly provided with a mounting sleeve, and an inner through hole of the mounting sleeve and the through hole formed in the support plate are coaxially arranged, so that the valve plug column of the sealing valve is coaxially arranged in the inner through hole and moveable up and down.
Assembly comprising a printed circuit board for motor vehicle illumination systems comprising a stack of layers consisting of a first metal layer, a first dielectric layer attached to it, a second metal layer adhering thereto, and a second dielectric layer adhering thereto, and a third metal layer adhering thereto, whereby the third metal layer is designed to make electrical contact with the light-emitting diodes positioned on it and to absorb heat generated in the light-emitting diodes, and whereby the printed circuit board comprises metallic through-contacts (A, B, C, E) that thermally connect the third metal layer with the second metal layer and comprising through-contacts (A, D, E) that thermally connect the second metal layer with the first metal layer, whereby the first dielectric layer is part of a copper-clad layer of a fiber-reinforced resin, the second dielectric layer is a layer of fiber-reinforced resin with a maximum thickness of 100 micrometers, the through-contacts are metallized bores, the first dielectric layer is thicker than the second dielectric layer, the second metal layer is just as thick as the first metal layer, and that the third metal layer is thinner than the first metal layer and also thinner than the second metal layer, whereby the first metal layer forms an underside of the stack of layers and the underside of the stack of layers is connected to a cooling unit.
A method comprising: displaying, by a display screen (200, 204, 220) of a mobile device (218, 500), a graphical user interface that includes a status area (202, 222) along an edge of the display screen and a central zone located adjacent to the status area; detecting, by an input device of the mobile device (218, 500), a user input initiated within the status area (202, 222) of the graphical user interface and including a dragging manipulation from the status area (202, 222) of the graphical user interface and across the graphical user interface away from the edge of the display screen (200, 204, 220); while the input device detects the dragging manipulation, displaying, by the display screen (200, 204, 220); a display area visually expanding across the graphical user interface away from the edge of the display screen (200, 204, 220) into the central zone of the graphical user interface in coordination with the dragging manipulation; and displaying, by the display screen (200, 204, 220), the display area within at least the central zone of the graphical user interface, the display area including detail regarding one or more alert events for the mobile device. displaying, by a display screen (200, 204, 220) of a mobile device (218, 500), a graphical user interface that includes a status area (202, 222) along an edge of the display screen and a central zone located adjacent to the status area; detecting, by an input device of the mobile device (218, 500), a user input initiated within the status area (202, 222) of the graphical user interface and including a dragging manipulation from the status area (202, 222) of the graphical user interface and across the graphical user interface away from the edge of the display screen (200, 204, 220); while the input device detects the dragging manipulation, displaying, by the display screen (200, 204, 220); a display area visually expanding across the graphical user interface away from the edge of the display screen (200, 204, 220) into the central zone of the graphical user interface in coordination with the dragging manipulation; and displaying, by the display screen (200, 204, 220), the display area within at least the central zone of the graphical user interface, the display area including detail regarding one or more alert events for the mobile device.
A hot rolled steel sheet consisting of, in mass%, C: 0.05% to 0.15%, Si: 0% to 0.2%, Al: 0.5% to 3.0%, Mn: 1.2% to 2.5%, P: 0.1% or less, S: 0.01% or less, N: 0.007% or less, Ti: 0.03% to 0.10%, Nb: 0.008% to 0.06%, V: 0% to 0.12%, one or more of Cr, Cu, Ni, and Mo: 0% to 2.0% in total, B: 0% to 0.005%, one or more of Ca, Mg, La, and Ce: 0% to 0.01% in total, total amount of Si and Al: 0.8 × (Mn-1)% or more, total amount of Ti and Nb: 0.04% to 0.14%, and the balance: Fe and impurities, wherein, in a structure of steel, a total area ratio of martensite and retained austenite is 3% to 20%, an area ratio of ferrite is 50% to 96%, and an area ratio of pearlite is 3% or less, wherein, in a superficial layer part, the thickness in a sheet thickness direction of a region in which a network-like oxide formed in the crystal grain boundary is present is less than 0.5 μm, a maximum tensile strength is 720 MPa or more and the hot rolled steel sheet is subjected to pickling, and wherein a yield ratio is 0.82 or less.
Sanitisation or sterilisation device for a stethoscope comprising a case (2, 2') and a support element (2") separate from said case, that accommodate sanitisation or sterilisation means (3, 3', 3"), a command and control unit and a battery, said device comprising means for coupling to the stethoscope to be sanitised or sterilised, said coupling means being magnetic or electromagnetic coupling means, mechanical coupling means or a combination of them, wherein said case presents to the outside a recess which forms an inverted cone, the base of which is open and substantially at the level of the outer surface of the case where a base circumference is formed, said sanitisation or sterilisation means (3, 3', 3") being arranged in correspondence to said cone.