mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising (a) a coating base selected from a water-dispersed coating, an epoxy polymer coating, an alkyd coating, a Type I urethane coating, or an unsaturated polyester coating; and (b) a fluorinated ester compound represented by Formula: where A is independently -OH, a C 1 -C 18 alkyl, -CH 2 OH, -CH 2 COOH, or (CH 2 CH 2 O) a (CH 2 CH(CH 3)O) b H; a and b are independently 0 to 3, where a+b is 1 to 3; s is 0, 1, or 2; Y is a linear or branched alkylene organic group having t+s substitutions, optionally interrupted by ether oxygen -O- and optionally having one or more alkoxylate linking groups that bond with A or [(CH 2) x -Q-Z-(CH 2) y -R f]; x is 0 or 1; Q is -C O- or -OC -; Z is -(CH 2) y S- or -(CH 2 CH 2 O) m (CH 2 CH(CH 3)O) n -; y is 2 to 6; m and n are independently 0 to 6, where m+n is 1 to 6; R f is a straight or branched perfluoroalkyl group of 2 to 20 carbon atoms, optionally interrupted by one or more -CH 2 -, -CFH-, ether oxygens -O-, or combinations thereof; and t is 2, 3, 4, 5, or 6, such that s+t is 2 to 6. A is independently -OH, a C 1 -C 18 alkyl, -CH 2 OH, -CH 2 COOH, or (CH 2 CH 2 O) a (CH 2 CH(CH 3)O) b H; a and b are independently 0 to 3, where a+b is 1 to 3; s is 0, 1, or 2; Y is a linear or branched alkylene organic group having t+s substitutions, optionally interrupted by ether oxygen -O- and optionally having one or more alkoxylate linking groups that bond with A or [(CH 2) x -Q-Z-(CH 2) y -R f]; x is 0 or 1; Q is -C O- or -OC -; Z is -(CH 2) y S- or -(CH 2 CH 2 O) m (CH 2 CH(CH 3)O) n -; y is 2 to 6; m and n are independently 0 to 6, where m+n is 1 to 6; R f is a straight or branched perfluoroalkyl group of 2 to 20 carbon atoms, optionally interrupted by one or more -CH 2 -, -CFH-, ether oxygens -O-, or combinations thereof; and t is 2, 3, 4, 5, or 6, such that s+t is 2 to 6.
An automatic dilator device, comprising: a plurality of concentric spreader tubes nested one inside the other, ranging from the innermost spreader tube to the outermost spreader tube, said spreader tubes comprising a mechanical screw-based mechanism adapted to couple adjacent spreaders; a rotation mechanism coupled to at least one of said spreader tubes,; and a mechanical arrangement associated with said at least one spreader tube, such that when said at least one spreader tube reaches a predetermined deployed position, said mechanical arrangement transfers rotary motion of said rotation mechanism to a second spreader tube disposed immediately outward of said at least one spreader tube, wherein said mechanical screw-based mechanism comprises at least a section of threading on an outer wall of said at least one spreader tube, adapted to mesh with a helical thread formed on the inner surface of said second spreader tube, such that when said rotation mechanism rotates said at least one spreader tube, a linear motion of said second spreader tube is generated through said mechanical screw based mechanism. a plurality of concentric spreader tubes nested one inside the other, ranging from the innermost spreader tube to the outermost spreader tube, said spreader tubes comprising a mechanical screw-based mechanism adapted to couple adjacent spreaders; a rotation mechanism coupled to at least one of said spreader tubes,; and a mechanical arrangement associated with said at least one spreader tube, such that when said at least one spreader tube reaches a predetermined deployed position, said mechanical arrangement transfers rotary motion of said rotation mechanism to a second spreader tube disposed immediately outward of said at least one spreader tube,
A spray gun, comprising: a front mounting base having a plurality of receiving cavities extending in axial direction of the front mounting base; a rear mounting base having an eccentric flow duct extending in axial direction of the rear mounting base, wherein the front mounting base is rotatably connected to the rear mounting base; and a pin component whereby the front mounting base and the rear mounting base are axially fixed in place; characterized in that: the front mounting base has at least three pinholes, the rear mounting base has at least one circumferential groove extending in circumferential direction of the rear mounting base, the pin component has at least three pin portions inserted into the pinholes and the circumferential groove, respectively, to provide axial support to the circumferential groove laterally; the front mounting base and the rear mounting base are axially fixed in place and supported by the pin portions; and axial support points formed as a result of contact between the circumferential groove and the pin portions are located at least three different positions in circumferential direction of the circumferential groove, respectively. a front mounting base having a plurality of receiving cavities extending in axial direction of the front mounting base; a rear mounting base having an eccentric flow duct extending in axial direction of the rear mounting base, wherein the front mounting base is rotatably connected to the rear mounting base; and a pin component whereby the front mounting base and the rear mounting base are axially fixed in place; characterized in that: the front mounting base has at least three pinholes, the rear mounting base has at least one circumferential groove extending in circumferential direction of the rear mounting base, the pin component has at least three pin portions inserted into the pinholes and the circumferential groove, respectively, to provide axial support to the circumferential groove laterally; the front mounting base and the rear mounting base are axially fixed in place and supported by the pin portions; and axial support points formed as a result of contact between the circumferential groove and the pin portions are located at least three different positions in circumferential direction of the circumferential groove, respectively.
An elongated electrode, comprising: a proximal conductor; a tubular member defining a channel therethrough and having proximal and distal end portions (20, 22), the proximal end portion receiving the proximal conductor within a proximal portion of the channel therein, the proximal conductor sealing the proximal portion of the channel the proximal end portion defining a hole through inner and outer surfaces of a side wall of the tubular member in fluid communication with the channel; and a treatment portion coupled to the distal end portion of the tubular member, the treatment portion including a base and an arm extending distally from the base, the base defining a port (34, 35) in fluid communication with the channel of the tubular member, the arm in electrical contact with the proximal conductor, the treatment portion configured to deliver electrosurgical energy to tissue. a proximal conductor; a tubular member defining a channel therethrough and having proximal and distal end portions (20, 22), the proximal end portion receiving the proximal conductor within a proximal portion of the channel therein, the proximal conductor sealing the proximal portion of the channel the proximal end portion defining a hole through inner and outer surfaces of a side wall of the tubular member in fluid communication with the channel; and a treatment portion coupled to the distal end portion of the tubular member, the treatment portion including a base and an arm extending distally from the base, the base defining a port (34, 35) in fluid communication with the channel of the tubular member, the arm in electrical contact with the proximal conductor, the treatment portion configured to deliver electrosurgical energy to tissue.
Method for detecting obstacles in the vicinity of an aircraft, the method comprising the following steps: - scanning a surrounding space using an obstacle sensor, said obstacle sensor generating positioning data relating to a plurality of obstacle points; - determining each obstacle point located within a detection area, each obstacle point located within said detection area being a relevant point, the detection area being different from said scanned surrounding space, each obstacle point located outside this detection area being an irrelevant point, said detection area extending between an inclusive upper plane (PSUP) and an inclusive lower plane (PINF), the upper plane (PSUP) and the lower plane (PINF) being located vertically and respectively being above and below the aircraft, the method comprising a step of determining a maximum threshold height and a minimum threshold height, said maximum threshold height being a distance vertically separating said upper plane (PSUP) and a reference (ref) of the aircraft, said minimum threshold height being a distance vertically separating said reference (ref) and said lower plane (PINF), said maximum threshold height and said minimum threshold height being variable as a function of at least one of the following parameters: a vertical speed of the aircraft, a height of the aircraft relative to the ground, a forward speed of the aircraft; - displaying said relevant points on a display, with no irrelevant point being displayed on the display. - scanning a surrounding space using an obstacle sensor, said obstacle sensor generating positioning data relating to a plurality of obstacle points; - determining each obstacle point located within a detection area, each obstacle point located within said detection area being a relevant point, the detection area being different from said scanned surrounding space, each obstacle point located outside this detection area being an irrelevant point, said detection area extending between an inclusive upper plane (PSUP) and an inclusive lower plane (PINF), the upper plane (PSUP) and the lower plane (PINF) being located vertically and respectively being above and below the aircraft, the method comprising a step of determining a maximum threshold height and a minimum threshold height, said maximum threshold height being a distance vertically separating said upper plane (PSUP) and a reference (ref) of the aircraft, said minimum threshold height being a distance vertically separating said reference (ref) and said lower plane (PINF), said maximum threshold height and said minimum threshold height being variable as a function of at least one of the following parameters: a vertical speed of the aircraft, a height of the aircraft relative to the ground, a forward speed of the aircraft; - displaying said relevant points on a display, with no irrelevant point being displayed on the display.
Water-free cosmetic composition characterized in that it comprises at least one non-ionic fixing polymer, one liquid petroleum jelly, at least one C 1 -C 6 lower alkanol, and at least one fatty acid ester, in which the non-ionic fixing polymers are chosen from vinylpyrolidone-based non-ionic polymers, and in which the C 1 -C 6 lower alkanol is ethanol and the fatty acid ester is a C 1 -C 22 alkyl monocarboxylate.
A sensor system for sensing contaminants within a fluid stream, the sensor system comprising: a sensor body; a light source disposed in the sensor body and configured to direct a light beam outwardly from an outlet of the sensor body; and a light sensor disposed in the sensor body and the sensor body having an inlet disposed opposite the light sensor, the inlet being positioned to receive and direct light towards the light sensor; wherein the sensor system further comprises an arm extending from the sensor body to a distal end of the arm, wherein the arm is insertable into the fluid stream; the light source is configured to direct the light beam outwardly from the outlet of the sensor body towards the distal end of the arm; wherein the sensor system further comprises a beam dump positioned at the distal end of the arm opposite the light source to absorb at least a portion of the light beam directed towards the distal end of the arm, thereby preventing the absorbed portion of the light beam from being reflected back towards the inlet; characterised in that the arm includes a shelf that is disposed intermediate between the sensor body and the distal end of the arm, the shelf being configured to partially restrict a field of intake of light at the inlet. a sensor body; a light source disposed in the sensor body and configured to direct a light beam outwardly from an outlet of the sensor body; and a light sensor disposed in the sensor body and the sensor body having an inlet disposed opposite the light sensor, the inlet being positioned to receive and direct light towards the light sensor; wherein the sensor system further comprises an arm extending from the sensor body to a distal end of the arm, wherein the arm is insertable into the fluid stream; the light source is configured to direct the light beam outwardly from the outlet of the sensor body towards the distal end of the arm; wherein the sensor system further comprises a beam dump positioned at the distal end of the arm opposite the light source to absorb at least a portion of the light beam directed towards the distal end of the arm, thereby preventing the absorbed portion of the light beam from being reflected back towards the inlet; characterised in that the arm includes a shelf that is disposed intermediate between the sensor body and the distal end of the arm, the shelf being configured to partially restrict a field of intake of light at the inlet.
Cutting machine for slicing a loaf of elastic material into slices, having - a base frame, - a forming tube channel fixed in the base frame and extending in the axial direction, with an open longitudinal side and a channel cavity open at both ends, - at least one cross press stamp (5.1 - 5.6) fitting into the open side of the forming tube channel for constituting a forming tube, - a longitudinal press drive positioned in alignment with the forming tube and capable of applying a force in the axial direction for axially driving one of a plurality of longitudinal press stamps (4.1 - 4.5) into the forming tube from the rear end and advancing and longitudinally pressing the loaf therein toward the cutting end of the forming tube, - a cutting device with a blade which is arranged in front of the cutting end of the forming tube and is displaceable in a transverse direction relative to the forming tube, characterized in that - the width of the forming tube channel is variable, - a plurality of cross press stamps (5.1 - 5.6) of different widths (b1 - b5) are provided which can be inserted into the open cross section of the forming tube channel, - a cross press drive is provided for displacing a cross press stamp (5.1 - 5.6) into the open longitudinal side of the forming tube channel in a first transverse direction (11.1), the transverse press direction (11.1). - a base frame, - a forming tube channel fixed in the base frame and extending in the axial direction, with an open longitudinal side and a channel cavity open at both ends, - at least one cross press stamp (5.1 - 5.6) fitting into the open side of the forming tube channel for constituting a forming tube, - a longitudinal press drive positioned in alignment with the forming tube and capable of applying a force in the axial direction for axially driving one of a plurality of longitudinal press stamps (4.1 - 4.5) into the forming tube from the rear end and advancing and longitudinally pressing the loaf therein toward the cutting end of the forming tube, - a cutting device with a blade which is arranged in front of the cutting end of the forming tube and is displaceable in a transverse direction relative to the forming tube, - the width of the forming tube channel is variable, - a plurality of cross press stamps (5.1 - 5.6) of different widths (b1 - b5) are provided which can be inserted into the open cross section of the forming tube channel, - a cross press drive is provided for displacing a cross press stamp (5.1 - 5.6) into the open longitudinal side of the forming tube channel in a first transverse direction (11.1), the transverse press direction (11.1).
A diesel particulate filter in which an exhaust gas circulates into a dividing wall of a filter substrate, wherein the diesel particulate filter is configured to have an inorganic porous layer that contains an inorganic porous material of a metal oxide or a metal composite oxide and is provided with a concavo-convex surface portion having a thickness of 50% to 95% of a thickness of the inorganic porous layer, wherein the thickness of the concavo-convex surface portion means the height from the bottom of the lowest concavity to the top of highest convexity, the inorganic porous layer being formed on a partial or entire surface of the dividing wall which is located at an inflow side of the exhaust gas, and the inorganic porous layer further comprises a silver alloy including a silver and a palladium in a state of being supported on the inorganic porous material.
A cushioning element (14; 26, 36; 60, 62, 64; 120; 230) comprising: a first layer including a depression defined by a first surface; and a first component disposed within the depression of the first layer, the first component comprising a plurality of affixed foam particles each including a first thermoplastic elastomeric material, wherein: the first component has one or more regions that include a plurality of unaffixed foam particles; each individual affixed foam particle of the plurality of affixed foam particles includes one or more binding regions affixing an outer surface of the individual foam particle to an outer surface of one or more adjacent foam particles; and the one or more binding regions include a binding material; wherein the first component comprises a plurality of layers of affixed foam particles, and wherein the average number of layers per millimeter in the first component is from 0.1 layers per millimeter to 2.5 layers per millimeter. a first layer including a depression defined by a first surface; and a first component disposed within the depression of the first layer, the first component comprising a plurality of affixed foam particles each including a first thermoplastic elastomeric material, wherein: the first component has one or more regions that include a plurality of unaffixed foam particles; each individual affixed foam particle of the plurality of affixed foam particles includes one or more binding regions affixing an outer surface of the individual foam particle to an outer surface of one or more adjacent foam particles; and the one or more binding regions include a binding material; wherein the first component comprises a plurality of layers of affixed foam particles, and wherein the average number of layers per millimeter in the first component is from 0.1 layers per millimeter to 2.5 layers per millimeter.
A lens driving device, the lens driving device comprising: a cover can (100, 1100), whose upper side surface includes an opening(110, 1110) formed to expose a lens and whose side surface extends from the upper side surface; a base(400, 1400) that is coupeld to the cover can(100, 1100); a housing(300, 1300) that is disposed over the base(400, 1400) and configured to move in first and second directions that are perpendicular to an optical axis; a bobbin(200, 1200) that is disposed in the housing (300, 1300) and configured to move in an optical axis direction; an actuator(500, 1500, 1600) that includes a magnet unit(510, 1510, 1610) arranged in the housing(300, 1300), a first coil unit(520, 1520) arranged in an outer side surface of the bobbin(200, 1200), and a second coil unit(530, 1620) that is arranged on the base(400, 1400); and a substrate(600, 1700) that is disposed between the second coil unit(530, 1620) and the base(400, 1400) so as to supply electric power to the first coil unit(520, 1520) and the second coil unit(530, 1620), characterized in that the lens driving device further comprises an upper spring(710, 1810) that is arranged at an upper portion of the housing(300, 1300), a lower spring(720, 1820) that is arranged at a lower portion of the housing(300, 1300), and at least two or at least four leaf springs(730, 1830) that are arranged between the housing(300, 1300) and the base(400, 1400), two of the leaf springs(730, 1830) being electrically connected to the substrate(600, 1700) and the upper spring(710, 1810). a cover can (100, 1100), whose upper side surface includes an opening(110, 1110) formed to expose a lens and whose side surface extends from the upper side surface; a base(400, 1400) that is coupeld to the cover can(100, 1100); a housing(300, 1300) that is disposed over the base(400, 1400) and configured to move in first and second directions that are perpendicular to an optical axis; a bobbin(200, 1200) that is disposed in the housing (300, 1300) and configured to move in an optical axis direction; an actuator(500, 1500, 1600) that includes a magnet unit(510, 1510, 1610) arranged in the housing(300, 1300), a first coil unit(520, 1520) arranged in an outer side surface of the bobbin(200, 1200), and a second coil unit(530, 1620) that is arranged on the base(400, 1400); and a substrate(600, 1700) that is disposed between the second coil unit(530, 1620) and the base(400, 1400) so as to supply electric power to the first coil unit(520, 1520) and the second coil unit(530, 1620),
A motor vehicle hybrid shelf assembly, comprising: a body; and a module spanning a component relief aperture created in the body; wherein the module defines a load bearing portion of the body replacing a load bearing capability of a body portion removed defining the component relief aperture, characterized in that the motor vehicle hybrid shelf assembly further includes multiple connecting members integrally connecting a first reinforcement member surrounding a weight reduction aperture to a second reinforcement member, the connecting members allowing the first reinforcement member and the second reinforcement member to be simultaneously co-molded in a single injection molding shot of a polymeric material. a body; and a module spanning a component relief aperture created in the body; wherein the module defines a load bearing portion of the body replacing a load bearing capability of a body portion removed defining the component relief aperture, characterized in that