mhurhangee/ep-ind-claims huggingface dataset:
Cuboid body support assembly having an air permeable top surface for supporting a human body and a spaced away bottom surface defining a cushion volume and defining side walls, wherein the air permeability of the top surface is higher than the air permeability of the bottom surface and higher than the air permeability of the side walls, wherein the air permeable top surface has multiple air outlets and wherein the cushion volume comprises, an upper cushion zone nearest to the top surface and a lower cushion zone and separated by a separation sheet provided with openings, wherein the upper cushion zone and the lower cushion zone comprise of a compressible material which is permeable for air in all directions and a flow path for air comprising an air inlet in the bottom surface, air displacement means, a heat exchanger, a flow path through the compressible material of the lower cushion zone, through the openings in the separation sheet and through the compressible material of the upper cushion zone and multiple air outlets as present in the top surface wherein all components are within the body support assembly. wherein the air permeable top surface has multiple air outlets and wherein the cushion volume comprises, an upper cushion zone nearest to the top surface and a lower cushion zone and separated by a separation sheet provided with openings, wherein the upper cushion zone and the lower cushion zone comprise of a compressible material which is permeable for air in all directions and a flow path for air comprising an air inlet in the bottom surface, air displacement means, a heat exchanger, a flow path through the compressible material of the lower cushion zone, through the openings in the separation sheet and through the compressible material of the upper cushion zone and multiple air outlets as present in the top surface wherein all components are within the body support assembly.
A battery, comprising: a folded bicell battery stack comprising an an anode, a cathode, and a separator layer; a cell casing enclosing the bicell stack; and at least one fiber optic cable bonded to one or more of the anode, the cathode and the separator layer by a bonding agent that is compatible to an internal cell environment. a folded bicell battery stack comprising an an anode, a cathode, and a separator layer; a cell casing enclosing the bicell stack; and at least one fiber optic cable bonded to one or more of the anode, the cathode and the separator layer by a bonding agent that is compatible to an internal cell environment.
Coated lens comprising at least one lens substrate and at least one coating, characterized in that the lens substrate comprises (i) at least two optical materials, the at least two optical materials being selected from the group consisting of at least one thermosetting hard resin, at least one thermoplastic hard resin, at least one photochromic material and at least one glass, the at least two different optical materials comprise at least one optical material comprising at least one glass, or (ii) a single optical material, the single optical material being at least one glass, and the coating comprises at least one anti-reflective coating comprising a lower part and an upper part, the lower part being next to a surface of the lens substrate, the lower part comprising an alternating layer sequence of [L, M] n, with L having a wavelength dependent refractive index ranging from 1.473 at 380 nm to 1.456 at 780 nm, M having a wavelength dependent refractive index ranging from 1.632 at 380 nm to 1.599 at 780 nm or M having a wavelength dependent refractive index ranging from 1.750 at 380 nm to 1.701 at 780 nm, n being ≥ 1, and the upper part comprising a layer sequence [H, M, L] m, with H having a wavelength dependent refractive index ranging from 2.832 at 380 nm to 2.270 at 780 nm, M having a wavelength dependent refractive index ranging from 1.632 at 380 nm to 1.599 at 780 nm or M having a wavelength dependent refractive index ranging from 1.750 at 380 nm to 1.701 at 780 nm, L having a wavelength dependent refractive index ranging from 1.473 at 380 nm to 1.456 at 780 nm and m being ≥ 1, the anti-reflective coating comprising at least, beginning from the surface to be coated, 0.19459·λ 0 /4·L to 0.23394·λ 0 /4·L; 0.48912·λ 0 /4·M to 0.77248·λ 0 /4·M; 0.32489·λ 0 /4·L to 0.61648·λ 0 /4·L; 0.36292·λ 0 /4·M to 0.54573·λ 0 /4·M; 0.48976·λ 0 /4·L to 0.80061·λ 0 /4·L; 0.59960·λ 0 /4·M to 0.83505·λ 0 /4·M; 0.10179·λ 0 /4·H to 0.23052·λ 0 /4·H; 0.50401·λ 0 /4·M to 0.70778·λ 0 /4·M; 0.30008·λ 0 /4·H to 0.48019·λ 0 /4·H; 0.99344·λ 0 /4·L to 1.35331·λ 0 /4·L, with λ 0 being in the range of 500 nm and 600 nm, M having a wavelength dependent refractive index of 1.614 at 500 nm to 1.606 at 600 nm or M having a wavelength dependent refractive index of 1.724 at 500 nm to 1.712 at 600 nm, L having a wavelength dependent refractive index of 1.462 at 500 nm and 1.459 at 600 nm and H having a wavelength dependent refractive index of 2.440 at 500 nm and 2.336 at 600 nm. (i) at least two optical materials, the at least two optical materials being selected from the group consisting of at least one thermosetting hard resin, at least one thermoplastic hard resin, at least one photochromic material and at least one glass, the at least two different optical materials comprise at least one optical material comprising at least one glass, or (ii) a single optical material, the single optical material being at least one glass,
An optical system (1a, 1b, 1c) for an image pickup apparatus, the optical system consisting of, in order from an object side to an image side, a front unit of a positive refractive power, a diaphragm, and a rear unit of a positive refractive power, wherein the front unit includes, in order from the object side to the image side, a positive lens L11, a positive lens L12, and a negative lens L13, wherein the rear unit includes, in order from the object side to the image side, a negative lens L21, a positive lens L22, and a positive lens L23, characterized in that the positive lens L12 and the negative lens L13 form a cemented lens, wherein an air lens with a convex surface on the image side is formed between the negative lens L21 and the positive lens L22, and wherein the following conditional expressions are satisfied: 1.00 < fF / fR < 2.00 1.00 < f22 / f R2b + R1b / R2b − R1b < − 0.10 where fF is a focal length of the front unit, fR is a focal length of the rear unit, f22 is a focal length of the positive lens L22, f is a focal length of the optical system, R1b is a radius of curvature of a surface on the image side of the negative lens L21, and R2b is a radius of curvature of a surface on the object side of the positive lens L22. wherein the front unit includes, in order from the object side to the image side, a positive lens L11, a positive lens L12, and a negative lens L13, wherein the rear unit includes, in order from the object side to the image side, a negative lens L21, a positive lens L22, and a positive lens L23, characterized in that the positive lens L12 and the negative lens L13 form a cemented lens, wherein an air lens with a convex surface on the image side is formed between the negative lens L21 and the positive lens L22, and wherein the following conditional expressions are satisfied: 1.00 < fF / fR < 2.00 1.00 < f22 / f R2b + R1b / R2b − R1b < − 0.10
Apparatus for selection of a wireless channel of a wireless access point in a Wi-Fi network, AP, the apparatus comprising: a) a calculation module configured to receive from the AP and/or one or more devices (203, 204, 205) connected to the AP channel measurements of channels of the AP during a first channel period; wherein the channel period is a time period; and to derive therefrom signal strength levels of channels of the AP; and b) a signal strength prediction module configured to predict future signal strength levels of the channels for a forthcoming channel period following the first channel period based on the signal strength levels thereby obtaining predicted future signal strength levels; and c) a channel selector adapted to select the wireless channel with a highest value of the predicted future signal strength levels. a) a calculation module configured to receive from the AP and/or one or more devices (203, 204, 205) connected to the AP channel measurements of channels of the AP during a first channel period; wherein the channel period is a time period; and to derive therefrom signal strength levels of channels of the AP; and b) a signal strength prediction module configured to predict future signal strength levels of the channels for a forthcoming channel period following the first channel period based on the signal strength levels thereby obtaining predicted future signal strength levels; and c) a channel selector adapted to select the wireless channel with a highest value of the predicted future signal strength levels.
An electronic component, comprising: a pad region (IPP1-110, IPP2-100) configured to receive a driving signal, the pad region including: a first pad row (IPP1-110) having pads, the pads of the first pad row having a shape extending along corresponding extension lines (L1, L2, L3, L4) and being arranged along a first direction axis, and a second pad row (IPP2-110) having pads, the pads of the second pad row having a shape extending along corresponding extension lines (L10, L20, L30, L40) and being arranged along the first direction axis; and a signal wire electrically connected to the pad region, wherein the pads of the first pad row (IPP1-110) include first pads and second pads, wherein extension lines of the first pads substantially converge to a first point (P1-1), and extension lines of the second pads substantially converge to a second point (P2-1) different from the first point (P1-1), the first pads and the second pads are disposed at a same side of a first reference line which is orthogonal to the first direction axis and defined on the center of the first pad row, and wherein the pads of the second pad row (IPP2-110) include third pads and fourth pads, wherein extension lines of the third pads substantially converge to a third point (P1-2), and extension lines of the fourth pads substantially converge to a fourth point (P2-2) different from the third point (P1-2). a pad region (IPP1-110, IPP2-100) configured to receive a driving signal, the pad region including: a first pad row (IPP1-110) having pads, the pads of the first pad row having a shape extending along corresponding extension lines (L1, L2, L3, L4) and being arranged along a first direction axis, and a second pad row (IPP2-110) having pads, the pads of the second pad row having a shape extending along corresponding extension lines (L10, L20, L30, L40) and being arranged along the first direction axis; and a signal wire electrically connected to the pad region, wherein the pads of the first pad row (IPP1-110) include first pads and second pads, wherein extension lines of the first pads substantially converge to a first point (P1-1), and extension lines of the second pads substantially converge to a second point (P2-1) different from the first point (P1-1), the first pads and the second pads are disposed at a same side of a first reference line which is orthogonal to the first direction axis and defined on the center of the first pad row, and wherein the pads of the second pad row (IPP2-110) include third pads and fourth pads, wherein extension lines of the third pads substantially converge to a third point (P1-2), and extension lines of the fourth pads substantially converge to a fourth point (P2-2) different from the third point (P1-2).
A method for producing a component, especially a bodywork component for a vehicle, or a composite component comprising a plurality of components, the method comprising the following steps: • forming a metal sheet in a forming die, especially in a deep-drawing die, • producing a reference marking in a predetermined location on the metal sheet, • the position of the reference marking is identified by a position recognition device, especially by a camera system, wherein the position recognition device generates positional data which correspond to the position of the reference marking, wherein • the formed metal sheet is positioned approximately by a positioning device such that the reference marking is located in a predetermined spatial region, • a first fixing element is positioned by means of an electronically controlled positioning means in the location of the reference marking based on the positional data, wherein a first fixing element is used which partly or completely has the shape of a sphere, or partly or completely has a shape similar to a sphere, and • the first fixing element is joined to the formed metal sheet, especially by welding the first fixing element on the formed metal sheet by a welding device. • forming a metal sheet in a forming die, especially in a deep-drawing die, • producing a reference marking in a predetermined location on the metal sheet, • the position of the reference marking is identified by a position recognition device, especially by a camera system, wherein the position recognition device generates positional data which correspond to the position of the reference marking, wherein • the formed metal sheet is positioned approximately by a positioning device such that the reference marking is located in a predetermined spatial region, • a first fixing element is positioned by means of an electronically controlled positioning means in the location of the reference marking based on the positional data, wherein a first fixing element is used which partly or completely has the shape of a sphere, or partly or completely has a shape similar to a sphere, and • the first fixing element is joined to the formed metal sheet, especially by welding the first fixing element on the formed metal sheet by a welding device.
A granular laundry detergent composition comprising: (a) from 0.0005 to 0.5 wt% of a dye granule, wherein the dye granule comprises: (i) 1 to 18 wt% of a shading dye; (ii) 62 to 99 wt% of a dispersant selected from: ligninsulphonates; alkali metal salts of the condensation products of naphthalenesulphonic acids and formaldehyde; polyvinylsulphonates; and, ethoxylated novolacs; (iii) 0 to 20 of wt% auxiliary agents; (b) from 5 to 50 wt% of a surfactant; (c) from 5 to 50 wt% builder selected from: calcium sequestrant materials; precipitating materials; and, calcium ion-exchange materials; and, (d) 0.05 to 50 wt% of a water soluble carrier salt; and, (e) the remainder to 100 wt% other ingredients. (a) from 0.0005 to 0.5 wt% of a dye granule, wherein the dye granule comprises: (i) 1 to 18 wt% of a shading dye; (ii) 62 to 99 wt% of a dispersant selected from: ligninsulphonates; alkali metal salts of the condensation products of naphthalenesulphonic acids and formaldehyde; polyvinylsulphonates; and, ethoxylated novolacs; (iii) 0 to 20 of wt% auxiliary agents; (i) 1 to 18 wt% of a shading dye; (ii) 62 to 99 wt% of a dispersant selected from: ligninsulphonates; alkali metal salts of the condensation products of naphthalenesulphonic acids and formaldehyde; polyvinylsulphonates; and, ethoxylated novolacs; (iii) 0 to 20 of wt% auxiliary agents; (b) from 5 to 50 wt% of a surfactant; (c) from 5 to 50 wt% builder selected from: calcium sequestrant materials; precipitating materials; and, calcium ion-exchange materials; and, (d) 0.05 to 50 wt% of a water soluble carrier salt; and, (e) the remainder to 100 wt% other ingredients.
Optical element, comprising a substrate, a cover layer, an optically active layer located therebetween, in which a hologram is written, and spacer elements arranged in a manner distributed in the optically active layer and consisting of a cured material, characterized in that the spacer elements and the optically active layer consist of the same material.
A tool for the stimulation of wells comprising an electric power supply port, a stimulation head and at least two capacitive elements (205a-205c) between said power supply port and said stimulation head, each capacitive element comprising two terminals (Bp, Bn) of respectively different polarities arranged on respectively opposite connection faces of said capacitive element, the terminals of the same polarity of said capacitive elements (205a-205c) being connected together such that said capacitive elements are electrically in parallel, characterized in that the capacitive elements (205a-205c) of the tool are arranged in series with their connection faces facing each another, and such that the connection faces facing each other of each pair of adjacent capacitive elements (205a-205c) correspond to terminals of the same polarity.
A computer-based method for non-invasive estimation of damping torque associated with a power generator in a power network using a computing device including at least one processor in communication with a phasor measurement unit associated with the power generator, said method comprising: receiving a first data sample set from the PMU, the first data sample set substantially representative of at least one measurement of the power generator; determining an estimated torque of the power generator based at least in part on the first data sample set; determining an estimated average torque and one or more estimated torque components based at least in part on the estimated torque; and outputting the estimated average torque and the one or more estimated torque components to an operator for use in stability analysis of one or more of the power generator and the power network. receiving a first data sample set from the PMU, the first data sample set substantially representative of at least one measurement of the power generator; determining an estimated torque of the power generator based at least in part on the first data sample set; determining an estimated average torque and one or more estimated torque components based at least in part on the estimated torque; and outputting the estimated average torque and the one or more estimated torque components to an operator for use in stability analysis of one or more of the power generator and the power network.
A multi-layer device comprising: a first layer with a micro-mechanical component formed thereon, wherein the first layer is silicon; first and second sealing layers, wherein the first layer is sandwiched between the first and second sealing layers and anodically bonded thereto to define a cavity therein; a gas provided within the cavity; and an electrode, characterized in that the electrode is formed on at least a part of a surface of the second sealing layer internal to the cavity and arranged to be in electrical contact with the first layer, for fixing the electrode potential at the silicon potential during anodic bonding such that the electrode reduces UV emission. a first layer with a micro-mechanical component formed thereon, wherein the first layer is silicon; first and second sealing layers, wherein the first layer is sandwiched between the first and second sealing layers and anodically bonded thereto to define a cavity therein; a gas provided within the cavity; and an electrode, characterized in that the electrode is formed on at least a part of a surface of the second sealing layer internal to the cavity and arranged to be in electrical contact with the first layer, for fixing the electrode potential at the silicon potential during anodic bonding such that the electrode reduces UV emission.
A method for preparing a radiolabeled synthetic polymer, the method comprising contacting a synthetic polymer with a carbon encapsulated nanoparticle composite having a radioactive particulate core in an aqueous medium comprising an electrolyte concentration and pH selected to enable short-range attractive forces to dominate over long range electrostatic repulsive forces,, wherein the synthetic polymer is selected from the group consisting of polystyrene, polytetrafluorethylene (PTFE), polyethylene terephthalate, and polylactide, and wherein (i) the electrolyte concentration is greater than 1 millimolar and less than 25 millimolar and the pH is below 4.5 and not less than 3.0, or (ii) the electrolyte concentration is greater than 80 millimolar and less than 150 mM and the pH is neutral. (i) the electrolyte concentration is greater than 1 millimolar and less than 25 millimolar and the pH is below 4.5 and not less than 3.0, or (ii) the electrolyte concentration is greater than 80 millimolar and less than 150 mM and the pH is neutral.
A lithium-ion secondary battery anode comprising: a current collector; and an active material layer disposed on the current collector, wherein the active material layer includes a plurality of needle-shaped bodies that contain silicon, and the needle-shaped bodies are fusion-bonded to the current collector. a current collector; and an active material layer disposed on the current collector, wherein the active material layer includes a plurality of needle-shaped bodies that contain silicon, and the needle-shaped bodies are fusion-bonded to the current collector.
A sole structure for an article of footwear comprising: a base component and a wedge component; the base component having a forefoot region, a midfoot region, and a heel region, and including a forward base portion and a rearward base portion; the forward base portion of the base component including a forward lateral flange having an inner surface and a forward medial flange having an inner surface; the wedge component extending from the midfoot region to the heel region and including a forward portion having a rearward medial flange and a rearward lateral flange; wherein the forward lateral flange of the base component abuts the rearward lateral flange of the wedge component; and wherein the forward medial flange of the base component abuts the rearward medial flange of the wedge component; wherein the inner surface of the forward lateral flange and the inner surface of the forward medial flange each include a curvature; wherein there is a dip or recessed surface area of one or both of the forward flanges (370, 380) nearer the rearward base portion and as the flange portion (370, 380) rises or extends upward in a proximal direction, it bends or bulges inward toward the centerline of the sole structure, having a convex inner surface that protrudes toward a longitudinal centerline of the sole structure, wherein the curvature corresponds to, matingly interfits and is coextensive with curvature of abutting portions of the wedge component. a base component and a wedge component; the base component having a forefoot region, a midfoot region, and a heel region, and including a forward base portion and a rearward base portion; the forward base portion of the base component including a forward lateral flange having an inner surface and a forward medial flange having an inner surface; the wedge component extending from the midfoot region to the heel region and including a forward portion having a rearward medial flange and a rearward lateral flange; wherein the forward lateral flange of the base component abuts the rearward lateral flange of the wedge component; and wherein the forward medial flange of the base component abuts the rearward medial flange of the wedge component; wherein the inner surface of the forward lateral flange and the inner surface of the forward medial flange each include a curvature; wherein there is a dip or recessed surface area of one or both of the forward flanges (370, 380) nearer the rearward base portion and as the flange portion (370, 380) rises or extends upward in a proximal direction, it bends or bulges inward toward the centerline of the sole structure, having a convex inner surface that protrudes toward a longitudinal centerline of the sole structure, wherein the curvature corresponds to, matingly interfits and is coextensive with curvature of abutting portions of the wedge component.