mhurhangee/ep-ind-claims huggingface dataset:
A clot extraction catheter comprising: an expandable tubular mesh having a distal end and a proximal end, the tubular mesh having an expanded configuration and a constrained configuration; a tapered tip fixed to the distal end of the expandable tubular mesh; a self-expanding ring attached to the proximal end of the expandable tubular mesh, the self-expanding ring having an unconstrained diameter which is greater than a width of the proximal end of the tapered tip; at least three control wires (132, 134a, 134b) attached to the self-expanding ring; an inner sheath advanceable over the at least three control wires (132, 134a, 134b) to constrain at least a portion of the self-expanding ring and at least a portion of the tubular mesh within a lumen of the inner sheath, wherein the at least three control wires (132, 134a, 134b) can be manipulated to control the angle of the self-expanding ring relative to an axis of the inner sheath when the self-expanding ring is unconstrained. an expandable tubular mesh having a distal end and a proximal end, the tubular mesh having an expanded configuration and a constrained configuration; a tapered tip fixed to the distal end of the expandable tubular mesh; a self-expanding ring attached to the proximal end of the expandable tubular mesh, the self-expanding ring having an unconstrained diameter which is greater than a width of the proximal end of the tapered tip; at least three control wires (132, 134a, 134b) attached to the self-expanding ring; an inner sheath advanceable over the at least three control wires (132, 134a, 134b) to constrain at least a portion of the self-expanding ring and at least a portion of the tubular mesh within a lumen of the inner sheath, wherein the at least three control wires (132, 134a, 134b) can be manipulated to control the angle of the self-expanding ring relative to an axis of the inner sheath when the self-expanding ring is unconstrained.
An evaporator that evaporates at least a part of a working fluid by heat absorbed from a heat source, comprising: a housing having a plurality of surfaces including a front surface and a back surface, at least one of the front and back surfaces having the largest area among the plurality of surfaces; and a heat-absorbing element disposed on at least one of the front and back surfaces and thermally connected to the heat source, wherein the housing includes: at least one working fluid inlet located in a surface of the housing, the surface being other than a top surface of the housing; characterized by at least one pair of working fluid outlets (21, 22) located respectively at diagonally opposite corners in opposite longitudinal end portions of the top surface. a housing having a plurality of surfaces including a front surface and a back surface, at least one of the front and back surfaces having the largest area among the plurality of surfaces; and a heat-absorbing element disposed on at least one of the front and back surfaces and thermally connected to the heat source, wherein the housing includes: at least one working fluid inlet located in a surface of the housing, the surface being other than a top surface of the housing; characterized by at least one pair of working fluid outlets (21, 22) located respectively at diagonally opposite corners in opposite longitudinal end portions of the top surface.
A fishing line guide in which a fishing line guide section guiding a fishing line, a first leg portion extending in one direction from an end portion of the fishing line guide section and having a fixed portion disposed at a tip, and a second leg portion branching from either one of the end portion of the fishing line guide section and the first leg portion to extend in another direction and having a fixed portion disposed at a tip are integrally configured, characterised by the fishing line guide comprising: a first fiber-reinforced resin layer where a plurality of sheet-shaped synthetic resins containing reinforced fibers are laminated to form the fishing line guide section and the first leg portion; a second fiber-reinforced resin layer where the synthetic resins forming the fishing line guide section and the second leg portion are laminated to be fixed to the first fiber-reinforced resin layer between the fishing line guide section and the branching position; a third fiber-reinforced resin layer where the synthetic resins are laminated to reach from the first leg portion to the second leg portion through the branching position and be fixed to the first fiber-reinforced resin layer and the second fiber-reinforced resin layer; and a branching gap member (14, 16, 17, 18) surrounded by the first fiber-reinforced resin layer to the third fiber-reinforced resin layer and positioned in the branching position. a first fiber-reinforced resin layer where a plurality of sheet-shaped synthetic resins containing reinforced fibers are laminated to form the fishing line guide section and the first leg portion; a second fiber-reinforced resin layer where the synthetic resins forming the fishing line guide section and the second leg portion are laminated to be fixed to the first fiber-reinforced resin layer between the fishing line guide section and the branching position; a third fiber-reinforced resin layer where the synthetic resins are laminated to reach from the first leg portion to the second leg portion through the branching position and be fixed to the first fiber-reinforced resin layer and the second fiber-reinforced resin layer; and a branching gap member (14, 16, 17, 18) surrounded by the first fiber-reinforced resin layer to the third fiber-reinforced resin layer and positioned in the branching position.
Pilot boat having four platforms protruding from the main deck, two on each side, two placed toward the bow and the other two placed to the rear, forming a single body with the main deck.
Device for connecting sanitary fittings - having an installation box, - having one or a plurality of fixtures, - having at least one fitting block and - having a water inlet and a water outlet, - wherein the fitting block comprises at least one connector for a connection with the water inlet and at least one connector for a connection with the water outlet, - wherein the fitting block comprises connectors for functional parts and - wherein the connection between the connector and the water inlet and between the connector and the water outlet is formed by flexible channel-like means, characterised in that - the flexible channel-like means are designed as telescopic pipes which are connected to the connectors (3, 5) via joints (77, 78). - having an installation box, - having one or a plurality of fixtures, - having at least one fitting block and - having a water inlet and a water outlet, - wherein the fitting block comprises at least one connector for a connection with the water inlet and at least one connector for a connection with the water outlet, - wherein the fitting block comprises connectors for functional parts and - wherein the connection between the connector and the water inlet and between the connector and the water outlet is formed by flexible channel-like means, - the flexible channel-like means are designed as telescopic pipes which are connected to the connectors (3, 5) via joints (77, 78).
A non-chromate containing corrosion inhibiting coating composition comprising: one or more organic binders; and solid components comprising: a praseodymium oxide selected from the group consisting of oxides, mixed oxides, solid solution oxides, hydrated oxides, and combinations thereof; and one or more neutral to slightly acidic generating extenders, wherein the neutral to slightly acidic generating extenders are selected from the group consisting of cerous phosphate, calcium sulfate, strontium sulfate, protonated calcium phosphate, and combinations thereof; wherein the solid components comprise 0.1 wt% to 90 wt% of the praseodymium oxide; wherein the non-chromate containing composition is capable of curing naturally and, upon curing, is capable of generating a pH between 4 and 8 at an interface between the composition and a substrate. one or more organic binders; and solid components comprising: a praseodymium oxide selected from the group consisting of oxides, mixed oxides, solid solution oxides, hydrated oxides, and combinations thereof; and one or more neutral to slightly acidic generating extenders, wherein the neutral to slightly acidic generating extenders are selected from the group consisting of cerous phosphate, calcium sulfate, strontium sulfate, protonated calcium phosphate, and combinations thereof; wherein the solid components comprise 0.1 wt% to 90 wt% of the praseodymium oxide; wherein the non-chromate containing composition is capable of curing naturally and, upon curing, is capable of generating a pH between 4 and 8 at an interface between the composition and a substrate. a praseodymium oxide selected from the group consisting of oxides, mixed oxides, solid solution oxides, hydrated oxides, and combinations thereof; and one or more neutral to slightly acidic generating extenders, wherein the neutral to slightly acidic generating extenders are selected from the group consisting of cerous phosphate, calcium sulfate, strontium sulfate, protonated calcium phosphate, and combinations thereof; wherein the solid components comprise 0.1 wt% to 90 wt% of the praseodymium oxide; wherein the non-chromate containing composition is capable of curing naturally and, upon curing, is capable of generating a pH between 4 and 8 at an interface between the composition and a substrate.
A switching device (100. 200) for medium, high or extremely high voltage, wherein at least one voltaged component (101, 102, 103, 104, 100, 202, 203, 400) of the switching device is enclosed in an enclosure (105, 201, 206) and the enclosure (105, 201, 206) is filled with an electrical insulation medium and/or arc extinction medium, characterised in that the electrical insulation medium and/or arc extinction medium comprises or consists of a fluorinated ketone C5.
An electrode of a secondary battery with an aluminum alloy foil, consisting of: 0.03 to 0.1 mass% (hereinafter referred to as %) of Fe, 0.005 to 0.02% of Ti, 0 to 0.1 % of Si, 0 to 0.01 % of Cu, 99.85% or more of Al, with the rest consisting of unavoidable impurities, wherein tensile strength of the aluminum alloy foil is 175 MPa or higher, electrical conductivity of the aluminum alloy foil is 60% IACS or higher, and a thickness of the aluminum alloy foil is 6 to 30 μm, wherein an active material layer is provided on the aluminum alloy foil. 0.03 to 0.1 mass% (hereinafter referred to as %) of Fe, 0.005 to 0.02% of Ti, 0 to 0.1 % of Si, 0 to 0.01 % of Cu, 99.85% or more of Al, with the rest consisting of unavoidable impurities, wherein tensile strength of the aluminum alloy foil is 175 MPa or higher, electrical conductivity of the aluminum alloy foil is 60% IACS or higher, and a thickness of the aluminum alloy foil is 6 to 30 μm, wherein an active material layer is provided on the aluminum alloy foil.
A method performed by one or more data processing apparatus, the method comprising: maintaining one or more application profiles, each application profile associated with one or more network activities in a network and corresponding to an application configured to execute on one or more devices in the network; detecting one or more network activities in the network associated with an application running on a device; determining that the one or more detected network activities associated with the application running on the device substantially match network activities associated with a first application profile; associating the device with a restricted network profile upon determining that the one or more detected network activities substantially match network activities associated with the first application profile, the restricted network profile configured to deny access by the device to one or more first resources on the network and configured to allow access by the device to one or more second resources on the network; and based upon the determination that the device is no longer running the application associated with the first application profile, determining that the device is not associated with the restricted network profile. maintaining one or more application profiles, each application profile associated with one or more network activities in a network and corresponding to an application configured to execute on one or more devices in the network; detecting one or more network activities in the network associated with an application running on a device; determining that the one or more detected network activities associated with the application running on the device substantially match network activities associated with a first application profile; associating the device with a restricted network profile upon determining that the one or more detected network activities substantially match network activities associated with the first application profile, the restricted network profile configured to deny access by the device to one or more first resources on the network and configured to allow access by the device to one or more second resources on the network; and based upon the determination that the device is no longer running the application associated with the first application profile, determining that the device is not associated with the restricted network profile.
A double clad optical fiber having a waveguide core, an inner waveguide cladding around the core having an inner cladding refractive index, and an outer waveguide cladding around the inner cladding, the outer waveguide cladding being a fluoroacrylate cladding and having an outer cladding refractive index lower than the inner cladding refractive index, and a jacket around the outer waveguide cladding having a jacket refractive index, the optical fiber having a portion extending along its length along which the outer waveguide cladding and the jacket are absent, the portion having corresponding faces (28,30) of the outer waveguide cladding at two lengthwisely opposite ends of the portion, characterized in that said optical fiber has a sealant at said portion, said sealant (44,46) extending along the entire length of the portion, the sealant (44,46) impeding lengthwise diffusion of environmental water through both faces (28,30) into the outer waveguide cladding.
A pressure-sensitive adhesive composition, comprising the reaction products of the following reaction components: acrylate copolymers having a side carboxyl, formed by a first monomer mixture containing a carboxyl-containing monomer, wherein, the content of the carboxyl-containing monomer is 0.1-10 wt. % based on the total weight of the first monomer mixture for forming the acrylate copolymer having the side carboxyl, the glass transition temperature Tg of the acrylate copolymer having the side carboxyl is greater than or equal to -50°C and less than or equal to -30°C; 1-25 wt. % of an acrylate oligomer based on the total weight of the acrylate copolymer having the side carboxyl and the acrylate oligomer, the weight-average molecular weight of the acrylate oligomer is greater than or equal to 20,000 Da, the glass transition temperature Tg thereof is greater than or equal to 80°C; and 1-20 wt. % of a terpene tackifying resin based on the total weight of the acrylate copolymer having the side carboxyl and the acrylate oligomer, wherein the Tg is obtained by Fox equation and the weight average molecular weight is tested by GPC method. acrylate copolymers having a side carboxyl, formed by a first monomer mixture containing a carboxyl-containing monomer, wherein, the content of the carboxyl-containing monomer is 0.1-10 wt. % based on the total weight of the first monomer mixture for forming the acrylate copolymer having the side carboxyl, the glass transition temperature Tg of the acrylate copolymer having the side carboxyl is greater than or equal to -50°C and less than or equal to -30°C; 1-25 wt. % of an acrylate oligomer based on the total weight of the acrylate copolymer having the side carboxyl and the acrylate oligomer, the weight-average molecular weight of the acrylate oligomer is greater than or equal to 20,000 Da, the glass transition temperature Tg thereof is greater than or equal to 80°C; and 1-20 wt. % of a terpene tackifying resin based on the total weight of the acrylate copolymer having the side carboxyl and the acrylate oligomer, wherein the Tg is obtained by Fox equation and the weight average molecular weight is tested by GPC method.
A medium feed device comprising: a medium feed mechanism which intermittently feeds a recording medium; a detection section which detects position displacement of the recording medium in a width direction; a width movement section which moves the recording medium in the width direction; and a control section which controls driving of the width movement section based on detection results by the detection section, wherein the control section stops driving of the width movement section when stopping feeding of the intermittent feeding, and wherein the control section controls driving of the width movement section based on detection results by the detection section during a control effective time among a period of stopping feeding of the intermittent feeding. a medium feed mechanism which intermittently feeds a recording medium; a detection section which detects position displacement of the recording medium in a width direction; a width movement section which moves the recording medium in the width direction; and a control section which controls driving of the width movement section based on detection results by the detection section, wherein the control section stops driving of the width movement section when stopping feeding of the intermittent feeding, and wherein the control section controls driving of the width movement section based on detection results by the detection section during a control effective time among a period of stopping feeding of the intermittent feeding.
A battery pack comprising: one or more battery modules, each battery module including one or more battery cells, and a module case structured to accommodate the one or more battery cells and to include a base panel structured to form a lower surface of the module case that supports the one or more battery cells; an accommodating panel structured to form a bottom surface of a module accommodating space for accommodating the one or more battery modules; and a comparting portion coupled to the accommodating panel to separate each of the one or more battery modules, wherein the accommodating panel includes: a first bottom surface positioned to face each of the base panels of the one or more battery modules; and a second bottom surface including a heat resistance portion connected to at least a part of the first bottom surface and configured to reduce conduction of heat generated by any one of the battery modules to another adjacent battery module through the first bottom surface, characterized in that the comparting portion is an angulated U-shaped frame open toward the second bottom surface. one or more battery modules, each battery module including one or more battery cells, and a module case structured to accommodate the one or more battery cells and to include a base panel structured to form a lower surface of the module case that supports the one or more battery cells; an accommodating panel structured to form a bottom surface of a module accommodating space for accommodating the one or more battery modules; and a comparting portion coupled to the accommodating panel to separate each of the one or more battery modules, wherein the accommodating panel includes: a first bottom surface positioned to face each of the base panels of the one or more battery modules; and a second bottom surface including a heat resistance portion connected to at least a part of the first bottom surface and configured to reduce conduction of heat generated by any one of the battery modules to another adjacent battery module through the first bottom surface, characterized in that a first bottom surface positioned to face each of the base panels of the one or more battery modules; and a second bottom surface including a heat resistance portion connected to at least a part of the first bottom surface and configured to reduce conduction of heat generated by any one of the battery modules to another adjacent battery module through the first bottom surface, characterized in that the comparting portion is an angulated U-shaped frame open toward the second bottom surface.
A method for calibrating a linearization function for correcting the output of a position sensor providing a continuous output position signal, wherein the linearization function has a predetermined number of linearization points, wherein each linearization point specifies a correction factor for a corresponding position of the output signal of the position sensor, comprising the steps of: setting an initial linearization point of the linearization function for a starting position to a start position of the position sensor; setting a final linearization point of the linearization function for a last position to the final position of the position sensor; determining the output of the position sensor for a full period by applying the linearization function to the position signal of the position sensor for the full period; calculating an error vector for the full period of the position sensor by comparing the output of the position sensor with a reference signal, wherein the reference signal provides an ideal position signal for the full period of the position sensor; detecting the maximum error of the error vector and the corresponding position of the detected maximum error; setting a next linearization point of the linearization function to the position of the maximum error and a correction factor corresponding to the difference between the output of the position sensor and the ideal position of the reference signal for the position of the maximum error; repeating the steps of determining the output of the position sensor, calculating the error vector, detecting the maximum error and setting the next linearization point until all available linearization points have been set. setting an initial linearization point of the linearization function for a starting position to a start position of the position sensor; setting a final linearization point of the linearization function for a last position to the final position of the position sensor; determining the output of the position sensor for a full period by applying the linearization function to the position signal of the position sensor for the full period; calculating an error vector for the full period of the position sensor by comparing the output of the position sensor with a reference signal, wherein the reference signal provides an ideal position signal for the full period of the position sensor; detecting the maximum error of the error vector and the corresponding position of the detected maximum error; setting a next linearization point of the linearization function to the position of the maximum error and a correction factor corresponding to the difference between the output of the position sensor and the ideal position of the reference signal for the position of the maximum error; repeating the steps of determining the output of the position sensor, calculating the error vector, detecting the maximum error and setting the next linearization point until all available linearization points have been set.