mhurhangee/ep-ind-claims huggingface dataset:
A method of assessing galvanic electronic isolation of two components (48, 50) at a joint of the two components (48, 50), comprising: measuring a first electrical resistance at a first condition across a joint of two components (48, 50); comparing the first electrical resistance to a threshold resistance, the comparison of the first electrical resistance to the threshold resistance indicative of a degree of electrical isolation of the two components (48, 50); measuring a second electrical resistance at a second condition; and comparing the second electrical resistance to the first electrical resistance, the result of the comparison of the second electrical resistance to the first electrical resistance indicative of a type of electrical connection between the two components (48, 50), wherein a first component of the two components is formed from a first material and a second component of the two components is formed from a second material different than the first material; wherein the first material and the second material are dissimilar metals; and wherein the joint further includes a dielectric insulator disposed between the first component and the second component. measuring a first electrical resistance at a first condition across a joint of two components (48, 50); comparing the first electrical resistance to a threshold resistance, the comparison of the first electrical resistance to the threshold resistance indicative of a degree of electrical isolation of the two components (48, 50); measuring a second electrical resistance at a second condition; and comparing the second electrical resistance to the first electrical resistance, the result of the comparison of the second electrical resistance to the first electrical resistance indicative of a type of electrical connection between the two components (48, 50), wherein a first component of the two components is formed from a first material and a second component of the two components is formed from a second material different than the first material; wherein the first material and the second material are dissimilar metals; and wherein the joint further includes a dielectric insulator disposed between the first component and the second component.
Spacer element for positioning of a grid shaped formation in a distance above a pressure plate of an insulation holder, characterized in that the spacer element substantially comprises a rectangular designed cover plate, at its slightly curved narrow sides to each side holding elements are adjacent, whereby the holding elements are formed out of a side wall, substantially perpendicular extending downwards from the cover plate, as well as a holding overhang, substantially perpendicular protruding inwards from the side wall, so that the spacer element can be slid on a circular pressure plate of an insulation holder.
Piston, in particular for an internal combustion engine, having a piston lower part and a piston upper part, an internal, preferably annular cooling channel and at least one inlet opening arranged on the piston lower part and at least one outlet opening arranged on the piston lower part, an inflow of coolant into the cooling channel and an outflow of coolant out of the latter taking place via said at least one inlet opening and at least one outlet opening, respectively, wherein the at least one inlet opening and/or the at least one outlet opening is/are formed by a rim hole and the latter is formed integrally with the piston lower part, characterized in that the at least one rim hole has a thread into which at least one tubular element (15, 115) is inserted.
An extended release pharmaceutical composition for oral administration comprising Quetiapine or a pharmaceutical acceptable salt thereof, as an active ingredient and an effective amount of the same matrix forming non-gelling, non-swellable, methacrylic acid-based enteric polymer both in the composition core and coating, wherein said enteric polymer is an anionic copolymer based on methacrylic acid and ethyl acrylate wherein the ratio of its free carboxyl groups to ester groups is 1:1.
Mechanical seal arrangement comprising: - a rotating slide ring and a stationary slide ring which define a sealing gap between them, - a bandage which is arranged on the outer surface of at least one of the slide rings, - characterized in that the slide ring on which the bandage is arranged comprises a step, which extends completely on the outer circumferential face in the circumferential direction and has a contact face, and - that an end face of the bandage lies against the contact face of the step. - a rotating slide ring and a stationary slide ring which define a sealing gap between them, - a bandage which is arranged on the outer surface of at least one of the slide rings, - characterized in that the slide ring on which the bandage is arranged comprises a step, which extends completely on the outer circumferential face in the circumferential direction and has a contact face, and - that an end face of the bandage lies against the contact face of the step.
An apparatus for drying, curing, or deaereating a continuous moving web carrying a solvent layer, comprising: a housing enclosing a drying chamber, said housing having entry and exit slots through which said web may be passing through said chamber; said entry and exit slots having a sealing mechanism to prevent leakage of ambient air into the drying chamber, or leaking out of the gas stream from the chamber into the ambient; a bottom heated plate and a top heated plate aligned substantially parallel to each other with a space between them, at least one inlet for a gas stream to flow into the chamber; at least one outlet for an exhaust to flow out of the chamber, characterised in that said space is no more than 10 cm distance apart; the web that carries a solvent layer is located less than 20 mm from the bottom heated plate; and the carrier web is closer to the heated bottom plate than to the heated top plate. a housing enclosing a drying chamber, said housing having entry and exit slots through which said web may be passing through said chamber; said entry and exit slots having a sealing mechanism to prevent leakage of ambient air into the drying chamber, or leaking out of the gas stream from the chamber into the ambient; a bottom heated plate and a top heated plate aligned substantially parallel to each other with a space between them, at least one inlet for a gas stream to flow into the chamber; at least one outlet for an exhaust to flow out of the chamber, characterised in that said space is no more than 10 cm distance apart; the web that carries a solvent layer is located less than 20 mm from the bottom heated plate; and the carrier web is closer to the heated bottom plate than to the heated top plate.
A method comprising: in a computing system, simulating a device including a fixed logic region and a plurality of reconfigurable logic regions, wherein the fixed logic region is operable to perform fixed functionality and the plurality of reconfigurable logic regions is reconfigurable to perform functionalities associated with a plurality of designs, wherein the plurality of designs includes a first design and a second design; and receiving a run-time parameter; and reconfiguring, in response to the run-time parameter, at least one reconfigurable region of the plurality of reconfigurable logic regions from the first design to the second design while simulation of the device is running; characterized by setting at least one output signal of said at least one reconfigurable region to a value of an indeterminate state after partial reconfiguration and holding the value until a sub-system reset occurs. in a computing system, simulating a device including a fixed logic region and a plurality of reconfigurable logic regions, wherein the fixed logic region is operable to perform fixed functionality and the plurality of reconfigurable logic regions is reconfigurable to perform functionalities associated with a plurality of designs, wherein the plurality of designs includes a first design and a second design; and receiving a run-time parameter; and reconfiguring, in response to the run-time parameter, at least one reconfigurable region of the plurality of reconfigurable logic regions from the first design to the second design while simulation of the device is running;
A method for removing carbon from a char product formed by heating a silica-containing rubber compound in an inert atmosphere or under vacuum, the method comprising heating the char product at a temperature of 500°C to 800°C in an oxidising atmosphere to remove carbon material from it to give a silica-containing product.
A dressing for treating a tissue site with negative pressure, comprising: a first layer comprising a hydrophobic gel having at least one treatment aperture; a second layer coupled to the first layer and comprising a proteolytic enzyme-modulating material; and a polymer drape adjacent to the first layer opposite the second layer, the polymer drape comprising an adhesive coating, wherein the enzyme-modulating material of the second layer is present at a higher concentration in a perimeter portion of the second layer than at a center portion of the second layer, or wherein the second layer forms a ring. a first layer comprising a hydrophobic gel having at least one treatment aperture; a second layer coupled to the first layer and comprising a proteolytic enzyme-modulating material; and a polymer drape adjacent to the first layer opposite the second layer, the polymer drape comprising an adhesive coating, wherein the enzyme-modulating material of the second layer is present at a higher concentration in a perimeter portion of the second layer than at a center portion of the second layer, or wherein the second layer forms a ring.
Method for measuring an electric current causing a magnetic field, using a diamond material to be exposed to the magnetic field, wherein the diamond material comprises a plurality of NV centres, wherein an NV centre has a nitrogen incorporation and a defect, adjacent to the nitrogen incorporation, in a crystal lattice of the diamond material and has in each case one of four possible locations in the crystal lattice of the diamond material, wherein the method includes the following steps: providing light as first electromagnetic waves in a first frequency spectrum and microwaves as second electromagnetic waves in a second frequency spectrum in order to excite the diamond material to fluorescence; capturing a fluorescence intensity of the fluorescence, wherein the diamond material is excited with a variable excitation frequency by way of the second electromagnetic waves and consequently intensity minima of the fluorescence, which depend on the location of the NV centres in the crystal lattice of the diamond material, are captured; evaluating the fluorescence intensity and a frequency of the second electromagnetic waves in order to ascertain a magnetic field strength of the magnetic field influencing the fluorescence, wherein a magnitude and a direction of the magnetic field are determined from the shape and location of the intensity minima; and determining a current strength of the current using the magnetic field strength. providing light as first electromagnetic waves in a first frequency spectrum and microwaves as second electromagnetic waves in a second frequency spectrum in order to excite the diamond material to fluorescence; capturing a fluorescence intensity of the fluorescence, wherein the diamond material is excited with a variable excitation frequency by way of the second electromagnetic waves and consequently intensity minima of the fluorescence, which depend on the location of the NV centres in the crystal lattice of the diamond material, are captured; evaluating the fluorescence intensity and a frequency of the second electromagnetic waves in order to ascertain a magnetic field strength of the magnetic field influencing the fluorescence, wherein a magnitude and a direction of the magnetic field are determined from the shape and location of the intensity minima; and determining a current strength of the current using the magnetic field strength.
A fire suppression system (110; 310; 410; 510), comprising: a vessel (120; 220; 320; 420; 520) having an opening and configured to contain a pressurised fire suppression agent (125; 225); a disk (130; 230; 330; 430; 530) configured to seal the opening of the vessel (120; 220; 320; 420; 520) and retain the pressurised fire suppression agent (125; 225); a plug (140; 240; 340; 555) configured to block the opening of the vessel and to support and retain the disk (130; 230; 330; 430; 530); a retainer (150; 250; 350; 570) configured to constrain the plug (140; 240; 340; 555), in a position adjacent to the disk (130, 230, 330, 430, 530), and to non-destructively change shape in response to an increase in temperature above a transition temperature, thereby releasing the plug (140; 240; 340; 555); and an exhaust port (160, 260, 360, 460, 560) configured to direct the fire suppression agent (125, 255), characterized in that the pressurised fire suppression agent (125; 225) causing the rupture of the disk (130; 230; 330; 430; 530) and pushing further the plug (140, 240, 340, 555) from the vessel releasing the fire suppression agent to exhaust port (160, 260, 360, 460, 560). a vessel (120; 220; 320; 420; 520) having an opening and configured to contain a pressurised fire suppression agent (125; 225); a disk (130; 230; 330; 430; 530) configured to seal the opening of the vessel (120; 220; 320; 420; 520) and retain the pressurised fire suppression agent (125; 225); a plug (140; 240; 340; 555) configured to block the opening of the vessel and to support and retain the disk (130; 230; 330; 430; 530); a retainer (150; 250; 350; 570) configured to constrain the plug (140; 240; 340; 555), in a position adjacent to the disk (130, 230, 330, 430, 530), and to non-destructively change shape in response to an increase in temperature above a transition temperature, thereby releasing the plug (140; 240; 340; 555); and an exhaust port (160, 260, 360, 460, 560) configured to direct the fire suppression agent (125, 255), characterized in that the pressurised fire suppression agent (125; 225) causing the rupture of the disk (130; 230; 330; 430; 530) and pushing further the plug (140, 240, 340, 555) from the vessel releasing the fire suppression agent to exhaust port (160, 260, 360, 460, 560).
A medical endoscope, comprising: a shaft comprising a distal end; an optical imaging means at the distal end of the shaft configured for producing a real image of an object observed by means of the medical endoscope; at least one of an image transmission means configured for transmitting the real image and an image sensor for capturing the real image, wherein the imaging means has curved light-refracting interfaces (31, 33, 34), which are tilted relative to one another, wherein the viewing direction of the endoscope is not parallel to the longitudinal axis of the distal end of the shaft of the medical endoscope, characterized in that the imaging means is produced by means of 3D printing, and by a light-steering means (52, 55) at the distal end of the medical endoscope configured for steering illumination light emanating from a distal light-exit surface of a light guide or from a light-exit surface of a light source, and in that the light-steering means (52, 55) has a light-refracting interface (53, 54, 56) tilted relative to a longitudinal axis of the distal end of the light guide or relative to a surface normal of the light-exit surface of the light source, and in that the imaging means and the light steering means (52, 55) are embodied monolithically. a shaft comprising a distal end; an optical imaging means at the distal end of the shaft configured for producing a real image of an object observed by means of the medical endoscope; at least one of an image transmission means configured for transmitting the real image and an image sensor for capturing the real image, wherein the imaging means has curved light-refracting interfaces (31, 33, 34), which are tilted relative to one another, wherein the viewing direction of the endoscope is not parallel to the longitudinal axis of the distal end of the shaft of the medical endoscope, characterized in that the imaging means is produced by means of 3D printing, and by a light-steering means (52, 55) at the distal end of the medical endoscope configured for steering illumination light emanating from a distal light-exit surface of a light guide or from a light-exit surface of a light source, and in that the light-steering means (52, 55) has a light-refracting interface (53, 54, 56) tilted relative to a longitudinal axis of the distal end of the light guide or relative to a surface normal of the light-exit surface of the light source, and in that the imaging means and the light steering means (52, 55) are embodied monolithically.
A metallic wick (1; 1a; 1b; 1c; 1d; 1e) for a lamp device comprising: at least one mesh member (10; 10a; 10b; 10c) including first and second ends (11; 11a; 11b; 11c and 12; 12a; 12b; 12c) disposed opposite to each other, first and second surfaces (13; 13a; 13b; 13c and 14; 14a; 14b; 14c) respectively extended from the first end (11; 11a; 11b; 11c) to the second end (12; 12a; 12b; 12c) thereof and arranged opposite to each other, a plurality of meshes (15; 15a; 15b; 15c) penetrating the first and second surfaces (13; 13a; 13b; 13c and 14; 14a; 14b; 14c) between the first and second ends (11; 11a; 11b; 11c and 12; 12a; 12b; 12c) thereof, and a transport channel (16; 16a; 16b; 16c) extending from the first end (11; 11a; 11b; 11c) to the second end (12; 12a; 12b; 12c) thereof drawing fuel by capillary action, characterized in that the metallic wick comprises a sleeve member (20, 20a) mounted around the mesh member (10; 10a; 10b; 10c), wherein the sleeve member has a plurality of apertures, with the sleeve member delimited first and second sections (202a, 203a) at two opposite ends thereof, with the plurality of apertures arranged at the first section. at least one mesh member (10; 10a; 10b; 10c) including first and second ends (11; 11a; 11b; 11c and 12; 12a; 12b; 12c) disposed opposite to each other, first and second surfaces (13; 13a; 13b; 13c and 14; 14a; 14b; 14c) respectively extended from the first end (11; 11a; 11b; 11c) to the second end (12; 12a; 12b; 12c) thereof and arranged opposite to each other, a plurality of meshes (15; 15a; 15b; 15c) penetrating the first and second surfaces (13; 13a; 13b; 13c and 14; 14a; 14b; 14c) between the first and second ends (11; 11a; 11b; 11c and 12; 12a; 12b; 12c) thereof, and a transport channel (16; 16a; 16b; 16c) extending from the first end (11; 11a; 11b; 11c) to the second end (12; 12a; 12b; 12c) thereof drawing fuel by capillary action, characterized in that the metallic wick comprises a sleeve member (20, 20a) mounted around the mesh member (10; 10a; 10b; 10c), wherein the sleeve member has a plurality of apertures, with the sleeve member delimited first and second sections (202a, 203a) at two opposite ends thereof, with the plurality of apertures arranged at the first section.
An autoinjector comprising: a case holding a medicament container having a needle and a stopper for sealing the container, the case including an angled rib (2.6); a needle shroud slidably disposed in the case and capable of moving proximally and distally relative to the case; a drive spring arranged within a proximal part of the case and biasing a plunger relative to the case; the plunger slidably disposed in the case and serving for forwarding a force of the drive spring to the stopper; the plunger including a plunger boss (10.1) being part of a plunger release mechanism arranged for preventing release of the plunger prior to depression of the needle shroud against an injection site and for releasing the plunger once the needle shroud is depressed; the case including a bayonet slot (2.3) adapted to engage the plunger boss (10.1); wherein, under the force of the drive spring, the plunger boss (10.1) rides the angled rib (2.6) in a distal direction, rotating the plunger relative to the case and fully disengaging the bayonet slot (2.3) and releasing the plunger to advance the stopper in the distal direction displacing the medicament from the medicament container through the needle, wherein the rib (2.6) is angled with respect to a longitudinal axis of the case and imparts a rotational and an axial force on the plunger boss (10.1). a case holding a medicament container having a needle and a stopper for sealing the container, the case including an angled rib (2.6); a needle shroud slidably disposed in the case and capable of moving proximally and distally relative to the case; a drive spring arranged within a proximal part of the case and biasing a plunger relative to the case; the plunger slidably disposed in the case and serving for forwarding a force of the drive spring to the stopper; the plunger including a plunger boss (10.1) being part of a plunger release mechanism arranged for preventing release of the plunger prior to depression of the needle shroud against an injection site and for releasing the plunger once the needle shroud is depressed; the case including a bayonet slot (2.3) adapted to engage the plunger boss (10.1); wherein, under the force of the drive spring, the plunger boss (10.1) rides the angled rib (2.6) in a distal direction, rotating the plunger relative to the case and fully disengaging the bayonet slot (2.3) and releasing the plunger to advance the stopper in the distal direction displacing the medicament from the medicament container through the needle, wherein the rib (2.6) is angled with respect to a longitudinal axis of the case and imparts a rotational and an axial force on the plunger boss (10.1).