mhurhangee/ep-ind-claims huggingface dataset:
A seat lifter comprising: a first link rotatably coupled to each of a first base member and a first seat frame which are disposed on one of right and left sides of a seat; a second link rotatably coupled to each of a second base member and a second seat frame which are disposed on the other side of the seat, and interlockably coupled to the first link through a coupling member; a lifting and lowering mechanism section for lifting and lowering the first and second seat frames (3a, 3b) with respect to the first and second base members (2a, 2b), the lifting and lowering mechanism section including: a first lifting and lowering mechanism section having a first sun gear and a first planetary gear group to lift and lower the first seat frame with respect to the first base member, the first planetary gear group having a plurality of first planetary gears each meshed with the first sun gear; and a second lifting and lowering mechanism section having a second sun gear and a second planetary gear group to lift and lower the second seat frame with respect to the second base member in interlocking relation with the first lifting and lowering mechanism section; and a planetary-gear operating section adapted to manipulatively allow the first planetary gear group to be circularly moved around the first sun gear, characterized in that the planetary-gear operating section includes a clutch plate, a cam and an operating lever, the cam being locked with the operating lever and being capable of becoming to be locked with the clutch plate and becoming unable to be rotated together with the clutch plate, the cam being rotated together with the clutch plate interlocking with rotational manipulation of the operation lever when being locked with the clutch plate, and the clutch plate has a shaft insertion holes rotatably receiving a shaft portion of the first planetary gears. a first link rotatably coupled to each of a first base member and a first seat frame which are disposed on one of right and left sides of a seat; a second link rotatably coupled to each of a second base member and a second seat frame which are disposed on the other side of the seat, and interlockably coupled to the first link through a coupling member; a lifting and lowering mechanism section for lifting and lowering the first and second seat frames (3a, 3b) with respect to the first and second base members (2a, 2b), the lifting and lowering mechanism section including: a first lifting and lowering mechanism section having a first sun gear and a first planetary gear group to lift and lower the first seat frame with respect to the first base member, the first planetary gear group having a plurality of first planetary gears each meshed with the first sun gear; and a second lifting and lowering mechanism section having a second sun gear and a second planetary gear group to lift and lower the second seat frame with respect to the second base member in interlocking relation with the first lifting and lowering mechanism section; and a planetary-gear operating section adapted to manipulatively allow the first planetary gear group to be circularly moved around the first sun gear,
A pharmaceutical composition comprising a collection of particles, wherein the particles comprise a drug and an ion exchange resin, wherein the ion exchange resin comprises 14% to 30% polymerized units of one or more multifunctional vinyl monomer, by weight based on the dry weight of the ion exchange resin.
Device (10, 20) for absorbing kinetic energy due to an exceptional load, characterized in that it comprises: - an outer envelope (100, 200a, 200b) configured to retain its integrity after the exceptional load, - a core (105a, 105b, 205a, 205b, 205c) made of compactable material at least partially filling the outer envelope, the material of the core becoming compacted under an exceptional load and absorbing a part of the kinetic energy due to the impact, - at least one stiffening element (115, 215, 315, 40) integrated into the core, and - a distribution element (110, 210, 310) comprising each stiffening element characterized in that at least one stiffening element (115, 215, 315, 40) is an assembly of unidirectional fibres held by a braided envelope. - an outer envelope (100, 200a, 200b) configured to retain its integrity after the exceptional load, - a core (105a, 105b, 205a, 205b, 205c) made of compactable material at least partially filling the outer envelope, the material of the core becoming compacted under an exceptional load and absorbing a part of the kinetic energy due to the impact, - at least one stiffening element (115, 215, 315, 40) integrated into the core, and - a distribution element (110, 210, 310) comprising each stiffening element
A method of identifying defects during manufacture of a component using additive layer manufacture, the method comprising: providing a powder layer to be melted in order to produce a layer of the component; scanning the powder layer using a first electron beam; detecting back scattered electrons produced by the interaction of the first electron beam with the powder layer; and identifying, from the detected back scattered electrons, any defects (520, 530) in the powder layer to be melted; and selectively melting at least a part of the powder layer so as to generate a solid layer of the component; and repeating the steps of: providing a powder layer; scanning the powder layer; detecting back scattered electrons; identifying defects in the powder layer; and selectively melting at least a part of the powder layer at least once so as to build up a shape corresponding to the component; wherein the step of selectively melting at least a part of the powder layer is performed by second electron beam; the power of the first electron beam is lower than the power of the second electron beam, and the power of the first electron beam is insufficient to cause melting of the powder layer; and characterised in that: the first electron beam and the second electron beam are generated using the same electron beam source, and if a defect is identified in the powder layer, the method further comprises making a decision about whether or not to remove the identified defect in the powder layer before the step of selectively melting at least a part of the powder layer; and the decision is based on one or more predetermined criteria. providing a powder layer to be melted in order to produce a layer of the component; scanning the powder layer using a first electron beam; detecting back scattered electrons produced by the interaction of the first electron beam with the powder layer; and identifying, from the detected back scattered electrons, any defects (520, 530) in the powder layer to be melted; and selectively melting at least a part of the powder layer so as to generate a solid layer of the component; and repeating the steps of: providing a powder layer; scanning the powder layer; detecting back scattered electrons; identifying defects in the powder layer; and selectively melting at least a part of the powder layer at least once so as to build up a shape corresponding to the component; wherein the step of selectively melting at least a part of the powder layer is performed by second electron beam; the power of the first electron beam is lower than the power of the second electron beam, and the power of the first electron beam is insufficient to cause melting of the powder layer; and characterised in that: the first electron beam and the second electron beam are generated using the same electron beam source, and if a defect is identified in the powder layer, the method further comprises making a decision about whether or not to remove the identified defect in the powder layer before the step of selectively melting at least a part of the powder layer; and the decision is based on one or more predetermined criteria.
A process for producing a coated conductor, said process comprising: (a) coating a conductor with a polymeric coating composition, wherein said polymeric coating composition comprises an ethylene polymer, an organic peroxide, and a polybutadiene; (b) cross-linking at least a portion of said polymeric coating composition thereby producing a cross-linked polymeric coating composition, wherein said cross-linking produces one or more byproducts, wherein said byproducts comprise methane, acetophenone, or both; and (c) degassing at least a portion of said cross-linked polymeric coating composition for a degassing time period and at a degassing temperature to remove at least a portion of said byproducts thereby producing a degassed polymeric coating composition, wherein said degassing time period of step (c) is sufficient to achieve a reduction in methane content and/or acetophenone content of at least 50 wt% and is at least 30% less than the degassing time period required for a reference coated conductor to achieve the same reduction in methane and/or acetophenone content, wherein said methane content reduction and/or acetophenone content reduction is determined from the methane content and/or acetophenone content of said reference coated conductor prior to said degassing for each of said coated conductor and said reference coated conductor, wherein said reference coated conductor has the same composition and structure, and is prepared in same manner as the coated conductor, except that the polymeric coating composition of the reference coated conductor comprises at least 41 wt% more organic peroxide and does not contain any polybutadiene wherein when said degassing time period is 15 minutes, said degassing temperature is 80 °C, and said cross-linked polymeric coating composition has a thickness of 1 mm, at least 65 wt% of said methane is removed from said cross-linked polymeric coating composition during said degassing of step (c). (a) coating a conductor with a polymeric coating composition, wherein said polymeric coating composition comprises an ethylene polymer, an organic peroxide, and a polybutadiene; (b) cross-linking at least a portion of said polymeric coating composition thereby producing a cross-linked polymeric coating composition, wherein said cross-linking produces one or more byproducts, wherein said byproducts comprise methane, acetophenone, or both; and (c) degassing at least a portion of said cross-linked polymeric coating composition for a degassing time period and at a degassing temperature to remove at least a portion of said byproducts thereby producing a degassed polymeric coating composition,
Machine for printing simultaneously on two parallel surfaces of a three-dimensional object, comprising: - a conveyor belt, - a centring station comprising two centring structures placed symmetrically in relation to the longitudinal axis of the conveyor belt, which overlaps the conveyor belt longitudinally, - a printing area comprising two mobile bases, each mobile base having at least one printhead and located at each side of the conveyor belt, - two fitting devices, - two actuators, - two lifts, and - a control unit, wherein, - the centring structures have the capacity to draw closer together or further apart by means of the two fitting devices, - the mobile bases have the capacity to move in both directions perpendicular to the longitudinal axis of the conveyor belt by means of the two actuators and the two lifts, respectively, and - the control unit comprises means to collect data about the dimensions of the object to be printed, said data determining the configuration of the centring station and the location of the mobile bases of the printheads, the collected data determining how the printer modifies its printing parameters in relation to the object about to be printed, the printing parameters regulating the following devices: - the fitting devices of the centring structures, - the actuators and the lifts of the mobile bases, and - means for extending the height of the centring structures or of the conveyor belt; said different devices being controlled electronically. - a conveyor belt, - a centring station comprising two centring structures placed symmetrically in relation to the longitudinal axis of the conveyor belt, which overlaps the conveyor belt longitudinally, - a printing area comprising two mobile bases, each mobile base having at least one printhead and located at each side of the conveyor belt, - two fitting devices, - two actuators, - two lifts, and - a control unit, wherein, - the centring structures have the capacity to draw closer together or further apart by means of the two fitting devices, - the mobile bases have the capacity to move in both directions perpendicular to the longitudinal axis of the conveyor belt by means of the two actuators and the two lifts, respectively, and - the control unit comprises means to collect data about the dimensions of the object to be printed, said data determining the configuration of the centring station and the location of the mobile bases of the printheads, the collected data determining how the printer modifies its printing parameters in relation to the object about to be printed, the printing parameters regulating the following devices: - the fitting devices of the centring structures, - the actuators and the lifts of the mobile bases, and - means for extending the height of the centring structures or of the conveyor belt; said different devices being controlled electronically. - the fitting devices of the centring structures, - the actuators and the lifts of the mobile bases, and - means for extending the height of the centring structures or of the conveyor belt; said different devices being controlled electronically.
An electrochemical test device (14, 200) for use in determining a concentration of each of a first analyte and a second analyte in a fluid sample, the electrochemical test device comprising a set of electrodes including a first working electrode (214, 510) having sensing chemistry (228, 230) for the first analyte, a second working electrode (218, 530) having sensing chemistry (232, 234) for the second analyte, and a counter/reference electrode (216, 520), wherein: the sensing chemistry for the first analyte comprises a first electron transfer agent (420, 430) having a first redox potential; the sensing chemistry for the second analyte comprises a diaphorase, a second electron transfer agent (420, 430) having a second redox potential, an NAD + -dependent dehydrogenase and a cofactor for the NAD + -dependent dehydrogenase; the first electron transfer agent for the first working electrode (214, 510) and the second electron transfer agent for the second working electrode (218, 530) are different electron transfer agents; characterised in that: the first analyte is lactate and the sensing chemistry for the lactate further comprises lactate oxidase, and the counter/reference electrode (216, 520) is provided with a third electron transfer (420, 430) agent having a third redox potential, wherein the third standard redox potential is higher than the second standard redox potential by at least 0.2V and wherein the first standard redox potential is substantially the same as the third standard redox potential. the sensing chemistry for the first analyte comprises a first electron transfer agent (420, 430) having a first redox potential; the sensing chemistry for the second analyte comprises a diaphorase, a second electron transfer agent (420, 430) having a second redox potential, an NAD + -dependent dehydrogenase and a cofactor for the NAD + -dependent dehydrogenase; the first electron transfer agent for the first working electrode (214, 510) and the second electron transfer agent for the second working electrode (218, 530) are different electron transfer agents; characterised in that: the first analyte is lactate and the sensing chemistry for the lactate further comprises lactate oxidase, and the counter/reference electrode (216, 520) is provided with a third electron transfer (420, 430) agent having a third redox potential, wherein the third standard redox potential is higher than the second standard redox potential by at least 0.2V and wherein the first standard redox potential is substantially the same as the third standard redox potential. the first analyte is lactate and the sensing chemistry for the lactate further comprises lactate oxidase, and the counter/reference electrode (216, 520) is provided with a third electron transfer (420, 430) agent having a third redox potential, wherein the third standard redox potential is higher than the second standard redox potential by at least 0.2V and wherein the first standard redox potential is substantially the same as the third standard redox potential.
An introducer sheath for providing vascular access in a patient's body, comprising a tubular body having a proximal end and a distal end, the distal end being configured to be inserted into a patient's vessel to allow a medical device to be inserted from the proximal end through the tubular body out of the distal end into the patient's vessel, characterized in that the tubular body includes a recoil section that has a radial compressibility which is higher than a radial compressibility of at least a portion of the tubular body that is distal to the recoil section, wherein the recoil section is configured to be placed in a region of a puncture site of the patient's vessel in order to allow for recoiling of the puncture site at least partially with the introducer sheath inserted in the patient's vessel.
An electric conduction structure with an outlet guide vane for conducting and diverting electric current from a vane main body of the outlet guide vane into an exterior support structure, comprising: a sheath of a metal having a shape adapted for covering a leading edge of the vane main body, characterized by comprising: an electrically conductive pad of the metal comprising a contact portion so dimensioned as to have an overlap with an end of the sheath, and a washer portion into which a bolt for being tightened into the support structure is insertable, wherein one or more joints selected from the group of a weld, a spot-weld, a solder, a bond by an electrically conductive paste and a crimp establish connection between the end of the sheath and the contact portion. a sheath of a metal having a shape adapted for covering a leading edge of the vane main body, characterized by comprising: an electrically conductive pad of the metal comprising a contact portion so dimensioned as to have an overlap with an end of the sheath, and a washer portion into which a bolt for being tightened into the support structure is insertable, wherein one or more joints selected from the group of a weld, a spot-weld, a solder, a bond by an electrically conductive paste and a crimp establish connection between the end of the sheath and the contact portion. an electrically conductive pad of the metal comprising a contact portion so dimensioned as to have an overlap with an end of the sheath, and a washer portion into which a bolt for being tightened into the support structure is insertable, wherein one or more joints selected from the group of a weld, a spot-weld, a solder, a bond by an electrically conductive paste and a crimp establish connection between the end of the sheath and the contact portion.
Mounting support for a filter canister provided with an external housing, in particular, a crimped canister, said support having: - a base intended to be connected to a lubrication circuit for an internal combustion engine, the base having an inlet for raw lubrication fluid, an outlet for purified lubrication fluid, and a conduit that communicates with one of said inlet and said outlet, - an axial sleeve connected in leakproof manner to said conduit, said axial sleeve forming part of a metallic attachment interface for contact with the filter canister, characterized in that the base is of plastic material, and in that said attachment interface comprises: - said metal, axial sleeve, which defines an axial passageway that communicates by a first extremity of the axial sleeve with one of said inlet and said outlet of the base, a first annular sealing zone being formed between the base and the axial sleeve of the attachment interface, the axial sleeve having attachment means chosen from among threads, pins, or notches, provided on a second extremity, allowing the filter canister to be attached, - a metal annular external portion integral with the axial sleeve and connected in leakproof manner to the base while forming a second annular sealing zone between the base and the attachment interface, at a distance from the first annual sealing zone, and - at least one opening (43, 44, 45) allowing liquid to circulate between the first and second sealing zones (51, 52), said opening communicating with the other of said inlet and said outlet of the base. - a base intended to be connected to a lubrication circuit for an internal combustion engine, the base having an inlet for raw lubrication fluid, an outlet for purified lubrication fluid, and a conduit that communicates with one of said inlet and said outlet, - an axial sleeve connected in leakproof manner to said conduit, said axial sleeve forming part of a metallic attachment interface for contact with the filter canister, characterized in that the base is of plastic material, and in that said attachment interface comprises: - said metal, axial sleeve, which defines an axial passageway that communicates by a first extremity of the axial sleeve with one of said inlet and said outlet of the base, a first annular sealing zone being formed between the base and the axial sleeve of the attachment interface, the axial sleeve having attachment means chosen from among threads, pins, or notches, provided on a second extremity, allowing the filter canister to be attached, - a metal annular external portion integral with the axial sleeve and connected in leakproof manner to the base while forming a second annular sealing zone between the base and the attachment interface, at a distance from the first annual sealing zone, and - at least one opening (43, 44, 45) allowing liquid to circulate between the first and second sealing zones (51, 52), said opening communicating with the other of said inlet and said outlet of the base.