mhurhangee/ep-ind-claims huggingface dataset:
A vehicle grille, comprising: a first locking means configured to engage with a portion of a bumper clip; a second locking means (3, 30) configured to engage with a portion of a bumper cover nail to retain the vehicle grille in an installed position; a support means configured to engage with the bumper cover nail to prevent disengagement of the second locking means (3, 30); and the support means comprising a reinforcing means extending along the support means and configured to produce a desired rigidity of the support means, characterized in that the reinforcing means extend along an entire length of the support means. a first locking means configured to engage with a portion of a bumper clip; a second locking means (3, 30) configured to engage with a portion of a bumper cover nail to retain the vehicle grille in an installed position; a support means configured to engage with the bumper cover nail to prevent disengagement of the second locking means (3, 30); and the support means comprising a reinforcing means extending along the support means and configured to produce a desired rigidity of the support means, characterized in that the reinforcing means extend along an entire length of the support means.
A biocompatible nanoparticle composition comprising a plurality of long circulating nanoparticles, each comprising: poly(lactic)acid-poly(ethylene)glycol block copolymer, wherein the poly(lactic)acid has a number average weight of about 16 kDa and the poly(ethylene)glycol has a number average molecular weight of about 5 kDa; a therapeutic agent selected from the group consisting of vincristine, vinblastine, methotrexate, paclitaxel and sirolimus; and a biocompatible polymer coupled to a targeting moiety; wherein the long circulating nanoparticles comparise about 80 to about 90 weight percent poly(lactic)acid-poly(ethylene)glycol block copolymer and about 1 to about 4% by weight of the biocompatible polymer coupled to a targeting moiety; said composition providing an elevated plasma concentration of the therapeutic agent for at least 12 hours when the composition is administered to a patient. poly(lactic)acid-poly(ethylene)glycol block copolymer, wherein the poly(lactic)acid has a number average weight of about 16 kDa and the poly(ethylene)glycol has a number average molecular weight of about 5 kDa; a therapeutic agent selected from the group consisting of vincristine, vinblastine, methotrexate, paclitaxel and sirolimus; and a biocompatible polymer coupled to a targeting moiety; wherein the long circulating nanoparticles comparise about 80 to about 90 weight percent poly(lactic)acid-poly(ethylene)glycol block copolymer and about 1 to about 4% by weight of the biocompatible polymer coupled to a targeting moiety; said composition providing an elevated plasma concentration of the therapeutic agent for at least 12 hours when the composition is administered to a patient.
A vacuum furnace configured to provide directional cooling comprising a cylindrical plenum comprising an inner shell, an outer shell, and a plurality of gas restrictor walls between the inner shell and the outer shell for dividing the cylindrical plenum into a plurality of sectors (1, 2, 3, 4), each of the plurality of sectors extending along a partial circumference of the cylindrical plenum and each of the plurality of sectors being connected to a separate gas inlet for providing cooling gas, characterised in that all of the separate gas inlets enter the cylindrical plenum along one side of the cylindrical plenum.
A method for manufacturing an electrochemical gas sensor for sensing a target gas, comprising the steps of - providing a substrate supporting an arrangement comprising a thin film of a thickness s ≤ 5μm arranged between a sensing electrode configured to chemically interact with the target gas and a reference electrode facing the substrate, wherein the thin film is selected from the group consisting of SixOy, SixNy, SiOxNy, Al2O3, BaZrO3, and LaAlO3, or any combination thereof, wherein the sensing electrode is porous at least for the target gas and comprises a compound selected from the group consisting of sodium salts, lithium salts, sodium hydroxides, and lithium hydroxides, wherein the thin film is an electronically non-conducting and ionically non-conducting ceramic or glass, - and heating the arrangement to an annealing temperature for irreversibly turning the thin film into an ionic conductor by incorporating mobile ions released from the sensing electrode in response to the heating. - providing a substrate supporting an arrangement comprising a thin film of a thickness s ≤ 5μm arranged between a sensing electrode configured to chemically interact with the target gas and a reference electrode facing the substrate, wherein the thin film is selected from the group consisting of SixOy, SixNy, SiOxNy, Al2O3, BaZrO3, and LaAlO3, or any combination thereof, wherein the sensing electrode is porous at least for the target gas and comprises a compound selected from the group consisting of sodium salts, lithium salts, sodium hydroxides, and lithium hydroxides, wherein the thin film is an electronically non-conducting and ionically non-conducting ceramic or glass, - and heating the arrangement to an annealing temperature for irreversibly turning the thin film into an ionic conductor by incorporating mobile ions released from the sensing electrode in response to the heating.
A crank circular slider mechanism comprising multi-row reciprocating motion part (1, 21,31,41,61) and one-row reciprocating part (2, 22, 32, 42, 62), wherein the multi-row reciprocating motion part (1, 21, 31, 41, 61) has a guiding part (1-2, 21-2, 31-2, 41-2, 61-2) which is divided by a longitudinal groove (1-4, 21-4, 31-4, 41-4, 61-4) into two rows (1-2-1, 1-2-2, 21-2-1, 21-2-2, 31-2-1, 31-2-2, 41-2-1, 41-2-2, 61-2-1, 61-2-2) parallel to each other, respectively named by the first row (1-2-1, 21-2-1, 31-2-1, 41-2-1, 61-2-1) of guiding section on which is provided a first hole (1-3-1, 21-3-1, 31-3-1, 41-3-1, 61-3-1) receiving a first circular slider (3-1, 23-1, 33-1, 43-1, 63-1); and the second row (1-2-2, 21-2-2, 31-2-2, 41-2-2, 61-2-2) of guiding section on which is provided a second hole (1-3-2, 21-3-2, 31-3-2, 41-3-2, 61-3-2) receiving a second circular slider (3-2, 23-2, 33-2, 43-2, 63-2), the one-row reciprocating motion part (2, 22, 32, 42, 62) has a guiding part (2-2, 22-2, 32-2, 42-2, 62-2) which can be inserted into the longitudinal groove (1-4, 21-4, 31-4, 41-4, 61-4) of the multi-row reciprocating motion part (1, 21, 31, 41, 61) along the thickness direction, so as to transverse vertically the multi-row reciprocating motion part (1, 21, 31, 41, 61), the guiding part (2-2, 22-2, 32-2, 42-2, 62-2) is provided thereon with a hole receiving a middle circular slider, the first circular slider (3-1, 23-1, 33-1, 43-1, 63-1) and the second circular slider (3-2, 23-2, 33-2, 43-2, 63-2) are mounted in the same phase, the middle circular slider is sandwiched between the first circular slider (3-1, 23-1, 33-1, 43-1, 63-1) and the second circular slider (3-2, 23-2, 33-2, 43-2, 63-2) and is located with a 180 degree phase difference compared to the two circular sliders (3-1, 3-2), the adjacent circular sliders (3-1, 3-2, 3-3) being secured to each other.
A liquid solder resist composition comprising: a carboxyl group-containing resin; a thermosetting component; a photopolymerizable component; and a photopolymerization initiator, the thermosetting component containing an epoxy compound, the epoxy compound containing a powdery epoxy compound represented by following formula and an epoxy compound other than the epoxy compound, R 1, R 2, R 3, and R 4 in the formula being independently a methyl group, a hydrogen atom, or a t-butyl group, the epoxy compound having a melting point within a range of 138 to 145 °C, an amount of the epoxy compound with respect to a total amount of the carboxyl group-containing resin, the thermosetting component, and the photopolymerizable component being within a range of 4.0 to 8.0 weight%, and an equivalent weight of epoxy groups in the epoxy compound with respect to 1 equivalent of carboxyl groups in the carboxyl group-containing resin being within a range of 1.0 to 4.0 equivalent. a carboxyl group-containing resin; a thermosetting component; a photopolymerizable component; and a photopolymerization initiator, the thermosetting component containing an epoxy compound, the epoxy compound containing a powdery epoxy compound represented by following formula and an epoxy compound other than the epoxy compound, R 1, R 2, R 3, and R 4 in the formula being independently a methyl group, a hydrogen atom, or a t-butyl group, the epoxy compound having a melting point within a range of 138 to 145 °C, an amount of the epoxy compound with respect to a total amount of the carboxyl group-containing resin, the thermosetting component, and the photopolymerizable component being within a range of 4.0 to 8.0 weight%, and an equivalent weight of epoxy groups in the epoxy compound with respect to 1 equivalent of carboxyl groups in the carboxyl group-containing resin being within a range of 1.0 to 4.0 equivalent.
A ureteral catheter, comprising: a drainage lumen comprising a proximal portion and a distal portion configured to be positioned in a patient's ureter and/or kidney, the distal portion comprising a coiled retention portion comprising a tube, the coiled retention portion comprising: at least a first coil having a first diameter; at least a second coil having a second diameter, the first diameter being less than the second diameter; the second coil being closer to a distal end of the distal portion of the drainage lumen than the first coil and one or more perforations on a sidewall of the tube for permitting fluid flow into the drainage lumen, wherein the sidewall comprises a radially inwardly facing side and a radially outwardly facing side, and wherein a total surface area for perforations on the radially inwardly facing side is greater than a total surface area of perforations on the radially outwardly facing side. at least a first coil having a first diameter; at least a second coil having a second diameter, the first diameter being less than the second diameter; the second coil being closer to a distal end of the distal portion of the drainage lumen than the first coil and one or more perforations on a sidewall of the tube for permitting fluid flow into the drainage lumen, wherein the sidewall comprises a radially inwardly facing side and a radially outwardly facing side, and wherein a total surface area for perforations on the radially inwardly facing side is greater than a total surface area of perforations on the radially outwardly facing side.
A lens moving unit comprising a first lens moving unit for auto focusing function and a second lens moving unit for handshake correction function for a camera module, wherein the first lens moving unit (100, 400) includes a bobbin (110, 410) mounted at an inner side with at least one lens and provided at a periphery with a first coil (120, 420), an elastic member including an upper and bottom elastic members (150, 450; 160, 460) to support the bobbin (110, 410) and a housing (140, 440) configured to support magnets (130, 430) facing the first coil arranged at the bobbin (110, 410) to move the bobbin (110, 410) and the first coil (120, 420) to a first direction along or parallel with an optical axis; and the second lens moving unit (200, 500) includes a base (210, 510) spaced apart from the bobbin (110, 410) and second coils (230, 530) arranged opposite to the magnets (130, 430) of the first lens moving unit(100, 400), and a circuit board (250, 550) including a detection sensor (240, 540) configured to detect positions of second and third directions of the housing (140, 440) which are perpendicular to the optical axis, wherein the first lens moving unit (100, 400) moves the bobbin(110, 410) and the first coil (120, 420) in the first direction in response to interaction between the magnets (130, 430) and the first coil (120, 420); and wherein second lens moving unit (200, 500) moves an entire first lens moving unit (100, 400) in mutually different second and third directions in response to the interaction between the magnets (130, 430) and the second coils, characterized in that the upper elastic member (150, 450) is integrally formed with a support member (220, 520) to movably support the first lens moving unit (100, 400) in the second and third directions relative to the base 210, 510), wherein the support member (220, 520) is bent to a direction parallel with the optical axis and is coupled to the base (210, 510) and the support member (220, 520) is configured to supply an electric power to the first coil (120, 420).
An exercise device, comprising: a pair of arcuate tube housings; a plurality of compression mechanisms positioned at ends of said pair of tube housings; a plurality of height-adjustment mechanisms releasably connected to said compression mechanisms; a width-adjustment mechanism releasably connected to said pair of tube housings; the exercise device being characterized in that each tube housing is adapted to be placed between the chest and legs while said compression mechanisms provide resistance during use, the tube housings being arranged at a distance from each other, and in that the width-adjustment mechanism is configured to adjust the distance between the tube housings. a pair of arcuate tube housings; a plurality of compression mechanisms positioned at ends of said pair of tube housings; a plurality of height-adjustment mechanisms releasably connected to said compression mechanisms; a width-adjustment mechanism releasably connected to said pair of tube housings; the exercise device being characterized in that each tube housing is adapted to be placed between the chest and legs while said compression mechanisms provide resistance during use, the tube housings being arranged at a distance from each other, and in that the width-adjustment mechanism is configured to adjust the distance between the tube housings.
A method of controlling an active suspension system of a vehicle that includes a first suspension assembly located at a first corner of the vehicle and having a first wheel and a first active suspension actuator and a second suspension assembly located at a second corner of the vehicle diagonally opposite to the first corner and having a second wheel and a second active suspension actuator, the method comprising: collecting information about a pothole that has a floor and a length along a direction of travel of the vehicle; based at least partially on the information about the pothole, selecting one of two strategies for traversing the pothole with the first wheel of the first suspension assembly, wherein a first strategy includes traversing most of the length of the pothole while the first wheel of the first suspension assembly is airborne and a second strategy includes traversing more than half of the length of the pothole while the first wheel of the first suspension assembly is in contact with the pothole floor; activating a damping element as the first active suspension actuator of the first suspension assembly of the vehicle to implement the selected strategy; wherein the selected strategy is the first strategy, characterized by applying a predetermined compressive force with the first active suspension actuator of the first suspension assembly at least during the period when the first wheel of the first suspension assembly is airborne applying a predetermined compressive force with the second active suspension actuator of the second suspension assembly at least during the period when the first wheel of the first suspension assembly is airborne, to, at least partially, unload the second wheel of the second suspension assembly. collecting information about a pothole that has a floor and a length along a direction of travel of the vehicle; based at least partially on the information about the pothole, selecting one of two strategies for traversing the pothole with the first wheel of the first suspension assembly, wherein a first strategy includes traversing most of the length of the pothole while the first wheel of the first suspension assembly is airborne and a second strategy includes traversing more than half of the length of the pothole while the first wheel of the first suspension assembly is in contact with the pothole floor; activating a damping element as the first active suspension actuator of the first suspension assembly of the vehicle to implement the selected strategy; wherein the selected strategy is the first strategy, characterized by applying a predetermined compressive force with the first active suspension actuator of the first suspension assembly at least during the period when the first wheel of the first suspension assembly is airborne applying a predetermined compressive force with the second active suspension actuator of the second suspension assembly at least during the period when the first wheel of the first suspension assembly is airborne, to, at least partially, unload the second wheel of the second suspension assembly.
A disposable absorbent article (10, 70) comprising a polymer film (15, 75) positioned to be activated by contact with bodily fluids, characterized in that said polymer film (15, 75) releases odor control and skin wellness agents upon contact with said bodily fluids, wherein said polymer film (15, 75) is comprised of multiple layers to implement a gradual release of said odor control and skin wellness agents over time.
A method performed by a user equipment (110, 500, 700), UE, with multiple radio frequency, RF, chains, comprising: decoding a first message received from a base station (112, 114), wherein the first message includes a request for the UE (110, 500, 700) to provide a measurement gap preference from a set of three different types of measurement gaps including: i) a regular measurement gap, ii) a small measurement gap, and iii) no measurement gap; encoding a second message for the base station (112, 114), wherein the second message includes (i) the measurement gap preference, (ii) an indication of whether the UE (110, 500, 700) supports per serving cell measurement gap, (iii) an indication of a number of frequencies to be measured by the UE (110, 500, 700), and (iv) a serving identifier for two or more cells configured for carrier aggregation for the UE (110, 500, 700); receiving an indication of a carrier aggregation specific measurement gap configuration; and performing measurement gap measurements according to the carrier aggregation specific measurement gap configuration. decoding a first message received from a base station (112, 114), wherein the first message includes a request for the UE (110, 500, 700) to provide a measurement gap preference from a set of three different types of measurement gaps including: i) a regular measurement gap, ii) a small measurement gap, and iii) no measurement gap; encoding a second message for the base station (112, 114), wherein the second message includes (i) the measurement gap preference, (ii) an indication of whether the UE (110, 500, 700) supports per serving cell measurement gap, (iii) an indication of a number of frequencies to be measured by the UE (110, 500, 700), and (iv) a serving identifier for two or more cells configured for carrier aggregation for the UE (110, 500, 700); receiving an indication of a carrier aggregation specific measurement gap configuration; and performing measurement gap measurements according to the carrier aggregation specific measurement gap configuration.
A blood monitoring device (10; 100) comprising an intravascular catheter having proximal and distal transducer device (14; 16) therein spaced apart and connected to both drivers and recognition and analysis devices, said transducer devices facing each other with a space therebetween which fills with blood when said catheter is inserted into a vein or artery, said transducer devices including means for measuring sound, speed and blood flow, a power source connected to both said drivers and said recognition and analysis devices, said drivers also being connected to said recognition and analysis devices, characterised that at least one analysis device is configured to continuously estimate at least one of a continuous hematocrit value and a continuous hemoglobin value based on a transit time of an ultrasound signal between the proximal and distal transducer device, wherein the analysis device is configured to measure attenuation of the ultrasound signal and adjust at least one of the estimated continuous hematocrit value and the estimated real-time hemoglobin value based on attenuation of the ultrasound signal.
A tool comprising: an implement comprising at least one movable component; a drive cable attached to the at least one movable component at a first end of the drive cable; a pole coupled with the implement; and a pulling member slidably mounted on the pole, wherein a second end of the drive cable is coupled to the pulling member, wherein a sliding movement of the pulling member is configured to actuate the at least one movable component of the implement through the drive cable, and wherein the pulling member comprises a gripping portion defining a gripping axis (GG'), wherein the gripping axis (GG') is transverse to the longitudinal axis of the pole (PP') and is offset relative to an outer surface of the pole; wherein a first point of contact of the drive cable with the pulling member from a direction of the implement is offset from the outer surface of the pole at a distance (O') characterised in that the distance (O') is close to the offset of the gripping axis (GG'); and the drive cable extends along a line starting from the first point of contact towards the implement such that the drive cable forms an angle (α), at a second point of contact (147, 147') of the drive cable towards the implement, relative to the longitudinal axis of the pole (PP'), wherein the angle (α) is equal to or less than 20 degrees. an implement comprising at least one movable component; a drive cable attached to the at least one movable component at a first end of the drive cable; a pole coupled with the implement; and a pulling member slidably mounted on the pole, wherein a second end of the drive cable is coupled to the pulling member, wherein a sliding movement of the pulling member is configured to actuate the at least one movable component of the implement through the drive cable, and wherein the pulling member comprises a gripping portion defining a gripping axis (GG'), wherein the gripping axis (GG') is transverse to the longitudinal axis of the pole (PP') and is offset relative to an outer surface of the pole; wherein a first point of contact of the drive cable with the pulling member from a direction of the implement is offset from the outer surface of the pole at a distance (O') characterised in that the distance (O') is close to the offset of the gripping axis (GG'); and the drive cable extends along a line starting from the first point of contact towards the implement such that the drive cable forms an angle (α), at a second point of contact (147, 147') of the drive cable towards the implement, relative to the longitudinal axis of the pole (PP'), wherein the angle (α) is equal to or less than 20 degrees.