mhurhangee/ep-ind-claims huggingface dataset:
An impingement insert for a turbomachine, comprising: an insert body including an inner surface, an outer surface spaced apart from the inner surface, and a thickness extending from the inner surface to the outer surface, the insert body defining a first depression (124, 124A, 124B) extending from one of the inner surface or the outer surface into the insert body, the first depression (124, 124A, 124B) having a diameter (130, 130A, 130B), the insert body further defining an impingement aperture extending from the first depression (124, 124A, 124B) through the insert body, the impingement aperture having a length and a diameter, wherein the thickness of the insert body is greater than the length of the impingement aperture and the diameter (130, 130A, 130B) of the first depression (124, 124A, 124B) is greater than the diameter of the impingement aperture. an insert body including an inner surface, an outer surface spaced apart from the inner surface, and a thickness extending from the inner surface to the outer surface, the insert body defining a first depression (124, 124A, 124B) extending from one of the inner surface or the outer surface into the insert body, the first depression (124, 124A, 124B) having a diameter (130, 130A, 130B), the insert body further defining an impingement aperture extending from the first depression (124, 124A, 124B) through the insert body, the impingement aperture having a length and a diameter, wherein the thickness of the insert body is greater than the length of the impingement aperture and the diameter (130, 130A, 130B) of the first depression (124, 124A, 124B) is greater than the diameter of the impingement aperture.
A plastic deformation method of a tightly wound coil spring for improving durability of the tightly wound coil spring, comprising: a regulating step of regulating deformation of the tightly wound coil spring in a coil spring radial direction by a cylindrical body adapted to prevent the tightly wound coil spring from being meanderingly deformed by inserting the tightly wound coil spring into the cylindrical body, before the tightly wound coil spring is fixed to an endoscope insertion portion; and a plastic deformation step of plastically deforming the tightly wound coil spring by applying a compression force in a coil spring axial direction to the tightly wound coil spring in a state where meandering deformation of the tightly wound coil spring in the coil spring radial direction is regulated. a regulating step of regulating deformation of the tightly wound coil spring in a coil spring radial direction by a cylindrical body adapted to prevent the tightly wound coil spring from being meanderingly deformed by inserting the tightly wound coil spring into the cylindrical body, before the tightly wound coil spring is fixed to an endoscope insertion portion; and a plastic deformation step of plastically deforming the tightly wound coil spring by applying a compression force in a coil spring axial direction to the tightly wound coil spring in a state where meandering deformation of the tightly wound coil spring in the coil spring radial direction is regulated.
A catheter assembly comprising: a) a catheter tube having a distal tip with a catheter tube distal opening to be inserted into a urethra of a female subject and a proximal tip having at least one catheter tube proximal opening; b) a locator tip located proximal the distal tip of the catheter tube, wherein the locator tip is sized to remain outside a female urethra and configured to allow the catheter tube to pass there through; and characterized in that the catheter assembly further comprises c) a sleeve connected to the locator tip and a case for storing the catheter assembly; wherein, upon removal of the catheter assembly from the case, the sleeve is extended over the catheter tube. a) a catheter tube having a distal tip with a catheter tube distal opening to be inserted into a urethra of a female subject and a proximal tip having at least one catheter tube proximal opening; b) a locator tip located proximal the distal tip of the catheter tube, wherein the locator tip is sized to remain outside a female urethra and configured to allow the catheter tube to pass there through; and characterized in that the catheter assembly further comprises c) a sleeve connected to the locator tip and a case for storing the catheter assembly;
A coated tablet comprising: • a core, comprising: ∘ refametinib, a hydrate, solvate, polymorph, or a pharmaceutically acceptable salt thereof; and ∘ one or more pharmaceutically acceptable core excipients; and • a polyethylene glycol-free, stability-maintaining coating, comprising: ∘ a stability-maintaining film former, which is hydroxypropyl methylcellulose; ∘ optionally, a further stability-maintaining film former; ∘ and, optionally, ∘ one or more pharmaceutically acceptable coating excipients. • a core, comprising: ∘ refametinib, a hydrate, solvate, polymorph, or a pharmaceutically acceptable salt thereof; and ∘ one or more pharmaceutically acceptable core excipients; and ∘ refametinib, a hydrate, solvate, polymorph, or a pharmaceutically acceptable salt thereof; and ∘ one or more pharmaceutically acceptable core excipients; and • a polyethylene glycol-free, stability-maintaining coating, comprising: ∘ a stability-maintaining film former, which is hydroxypropyl methylcellulose; ∘ optionally, a further stability-maintaining film former; ∘ and, optionally, ∘ one or more pharmaceutically acceptable coating excipients. ∘ a stability-maintaining film former, which is hydroxypropyl methylcellulose; ∘ optionally, a further stability-maintaining film former; ∘ and, optionally, ∘ one or more pharmaceutically acceptable coating excipients.
A method of making a dianhydride comprising: wherein R is selected from the following structures: wherein each R 1 and R 2 are independently selected from the group consisting of: H, a linear or branched, substituted or unsubstituted, alkyl group, wherein when the bond is directed to the middle of a ring, this indicated that 1 to 4 of the R groups is optionally attached to the ring and each R group is independently selected from other R groups attached to a ring, wherein Ar 1 is selected from the group consisting of: an aryl group and a heteroaryl group where each are substituted or unsubstituted.
An electrical connector comprising: a) a plug member including a dielectric base section and a dielectric peripheral wall extending perpendicular from the dielectric base section in mating direction of the plug member; b) metallic pins (426, 428, 430, 432, 434) arranged in a plurality of rows, which metallic pins (426, 428, 430, 432, 434) are carried by said dielectric base section and extend perpendicularly thereto; and c) longitudinally extending grounding elements ((436, 438, 440, 442, 444, 446) positioned between said rows of metallic pins (426, 428, 430, 432, 434) and extending perpendicularly to said dielectric base section; d) said metallic pins (426, 428, 430, 432, 434) each comprising a mating end and a mounting end opposite said mating end, whereby the mating end extends beyond said dielectric base section; characterized in that e) solder balls (452, 454) are attached to said metallic pins (426, 428, 430, 432, 434) and spaced from said dielectric base section, such that said solder balls (452, 454) extend beyond said dielectric base section and form a ball grid array; whereby f) said mounting ends of said metallic pins (426, 428 430, 432, 434) each have a free end and said solder balls (452, 454) are positioned adjacent to said free ends of said metallic pins (426, 428, 430, 432, 434). a) a plug member including a dielectric base section and a dielectric peripheral wall extending perpendicular from the dielectric base section in mating direction of the plug member; b) metallic pins (426, 428, 430, 432, 434) arranged in a plurality of rows, which metallic pins (426, 428, 430, 432, 434) are carried by said dielectric base section and extend perpendicularly thereto; and c) longitudinally extending grounding elements ((436, 438, 440, 442, 444, 446) positioned between said rows of metallic pins (426, 428, 430, 432, 434) and extending perpendicularly to said dielectric base section; d) said metallic pins (426, 428, 430, 432, 434) each comprising a mating end and a mounting end opposite said mating end, whereby the mating end extends beyond said dielectric base section; characterized in that e) solder balls (452, 454) are attached to said metallic pins (426, 428, 430, 432, 434) and spaced from said dielectric base section, such that said solder balls (452, 454) extend beyond said dielectric base section and form a ball grid array; whereby f) said mounting ends of said metallic pins (426, 428 430, 432, 434) each have a free end and said solder balls (452, 454) are positioned adjacent to said free ends of said metallic pins (426, 428, 430, 432, 434).
An earth-boring tool, comprising: a tool crown; and at least one cutting element attached to the tool crown, the at least one cutting element comprising a superabrasive material having a cutting face and a cutting edge extending along a periphery of the cutting face, a first area of the cutting face having a first average surface roughness and a second area of the cutting face having a second average surface roughness greater than the first average surface roughness, wherein a boundary between the first area and the second area extends from a location on the cutting face proximate a profile of the tool crown at a point of attachment of the cutting element to the tool crown towards an area of the cutting face remote from the profile of the tool crown; wherein the first area and the second area of the cutting face are relatively configured and located to cause the second area to impart a greater sliding friction force than a friction force imparted by the first area to a subterranean formation chip moving over the cutting face to urge the chip laterally away from the center of the cutting face towards the second area. a tool crown; and at least one cutting element attached to the tool crown, the at least one cutting element comprising a superabrasive material having a cutting face and a cutting edge extending along a periphery of the cutting face, a first area of the cutting face having a first average surface roughness and a second area of the cutting face having a second average surface roughness greater than the first average surface roughness, wherein a boundary between the first area and the second area extends from a location on the cutting face proximate a profile of the tool crown at a point of attachment of the cutting element to the tool crown towards an area of the cutting face remote from the profile of the tool crown; wherein the first area and the second area of the cutting face are relatively configured and located to cause the second area to impart a greater sliding friction force than a friction force imparted by the first area to a subterranean formation chip moving over the cutting face to urge the chip laterally away from the center of the cutting face towards the second area.
A multichannel access method performed by a multichannel access apparatus, the method comprising: • obtaining a transmission opportunity, TXOP, of a first reserved channel (Sioi); • calculating a sending moment of a current data frame in the TXOP and using the calculated sending moment as an ending moment of a preset time segment, wherein a time length of the preset time segment is equal to a point coordination function interframe space, PIFS, a distributed coordination function interframe space, DIFS, an arbitration interframe space, AIFS, or a short interframe space, SIFS; • sensing a non-reserved channel other than the first reserved channel in the preset time segment in the TXOP, and if the non-reserved channel is in an idle state, using the non-reserved channel as a second reserved channel; and • when the ending moment of the preset time segment is reached, sending the current data frame on the first reserved channel and the second reserved channel. • obtaining a transmission opportunity, TXOP, of a first reserved channel (Sioi); • calculating a sending moment of a current data frame in the TXOP and using the calculated sending moment as an ending moment of a preset time segment, wherein a time length of the preset time segment is equal to a point coordination function interframe space, PIFS, a distributed coordination function interframe space, DIFS, an arbitration interframe space, AIFS, or a short interframe space, SIFS; • sensing a non-reserved channel other than the first reserved channel in the preset time segment in the TXOP, and if the non-reserved channel is in an idle state, using the non-reserved channel as a second reserved channel; and • when the ending moment of the preset time segment is reached, sending the current data frame on the first reserved channel and the second reserved channel.
A dual-mode thermal management loop system (100; 300; 400) configured to operate in either a powered-pump mode or a passive-capillary mode, wherein the dual-mode thermal management loop system comprises: a controller (170; 370; 470) having a processor; and a tangible, non-transitory memory configured to communicate with the processor, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the processor, cause the dual-mode thermal management loop system to perform operations comprising: identifying, by the processor, a heat transfer load on the dual-mode thermal management loop system; determining, by the processor, whether the heat transfer load exceeds a predetermined threshold; in response to determining that the heat transfer load does not exceed the predetermined threshold, operating, by the processor, the dual-mode thermal management loop system in the passive-capillary mode; and in response to determining that the heat transfer load exceeds the predetermined threshold, operating, by the processor, the dual-mode thermal management loop system in the powered-pump mode; characterized by a flow sensor coupled to a membrane separator (180; 380; 480); wherein the membrane separator (180; 380; 480) is fluidly coupled between a condenser (130; 330; 430) and an accumulator (140; 340; 440); wherein the flow sensor is configured to report flow data to the controller (170; 370; 470); and wherein identifying the heat transfer load comprises detecting a flow of fluid in the membrane with the flow sensor. a controller (170; 370; 470) having a processor; and a tangible, non-transitory memory configured to communicate with the processor, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the processor, cause the dual-mode thermal management loop system to perform operations comprising: identifying, by the processor, a heat transfer load on the dual-mode thermal management loop system; determining, by the processor, whether the heat transfer load exceeds a predetermined threshold; in response to determining that the heat transfer load does not exceed the predetermined threshold, operating, by the processor, the dual-mode thermal management loop system in the passive-capillary mode; and in response to determining that the heat transfer load exceeds the predetermined threshold, operating, by the processor, the dual-mode thermal management loop system in the powered-pump mode; identifying, by the processor, a heat transfer load on the dual-mode thermal management loop system; determining, by the processor, whether the heat transfer load exceeds a predetermined threshold; in response to determining that the heat transfer load does not exceed the predetermined threshold, operating, by the processor, the dual-mode thermal management loop system in the passive-capillary mode; and in response to determining that the heat transfer load exceeds the predetermined threshold, operating, by the processor, the dual-mode thermal management loop system in the powered-pump mode;
An elastic film comprising a plurality of parallel elastic ribbons elongated in a longitudinal direction and spaced apart from each other in a transverse direction orthogonal to said longitudinal direction, wherein said plurality of parallel elastic ribbons are coated on two opposite surfaces by first and second skin layers (14, 16) wherein said first skin layer is continuous in said transverse direction and joins said elastic ribbons to each other, and wherein the second skin layer is discontinuous in said transverse direction and coats surfaces of said elastic ribbons opposite to said first skin layer.
A valve plate for a fluid pump comprising: a body having a first surface and an oppositely disposed second surface, the body defining: - a first kidney slot extending through the first and second surfaces (52, 54) includes a first end and an oppositely disposed second end; - a second kidney slot extending through the first and second surfaces (52, 54); - a first notch disposed in the first surface of the body extending outwardly from the first kidney slot; - a second notch disposed in the first surface extending outwardly from the first kidney slot, characterized in that the second notch is separated from the first notch, and both, the first notch and the second notch extend from the first end of the first kidney slot in a direction towards the second kidney slot. a body having a first surface and an oppositely disposed second surface, the body defining: - a first kidney slot extending through the first and second surfaces (52, 54) includes a first end and an oppositely disposed second end; - a second kidney slot extending through the first and second surfaces (52, 54); - a first notch disposed in the first surface of the body extending outwardly from the first kidney slot; - a second notch disposed in the first surface extending outwardly from the first kidney slot, - a first kidney slot extending through the first and second surfaces (52, 54) includes a first end and an oppositely disposed second end; - a second kidney slot extending through the first and second surfaces (52, 54); - a first notch disposed in the first surface of the body extending outwardly from the first kidney slot; - a second notch disposed in the first surface extending outwardly from the first kidney slot, characterized in that the second notch is separated from the first notch, and both, the first notch and the second notch extend from the first end of the first kidney slot in a direction towards the second kidney slot.
Item of furniture and/or appliance comprising: - at least one worktop formed from at least one substrate made of a monolithic glazing material and of area larger than 0.7 m 2, the glazing material having an opacity indicator higher than 93 and lower than 100, said substrate having a lightness L* lower than 10, a haze lower than 30% and a light transmission T L lower than 10%; - at least one heating element; - at least one light source, intended to light up one or more zones or one or more elements or displays of the substrate, this source being located under the substrate and being hidden thereby when this source is turned off; and - at least one interface for communicating between a human and at least a machine selected from a light source and a heating element. - at least one worktop formed from at least one substrate made of a monolithic glazing material and of area larger than 0.7 m 2, the glazing material having an opacity indicator higher than 93 and lower than 100, said substrate having a lightness L* lower than 10, a haze lower than 30% and a light transmission T L lower than 10%; - at least one heating element; - at least one light source, intended to light up one or more zones or one or more elements or displays of the substrate, this source being located under the substrate and being hidden thereby when this source is turned off; and - at least one interface for communicating between a human and at least a machine selected from a light source and a heating element.
A compound of formula: that is: 4-(4-(4-(((3 R,5 R)-5-((1 H -1,2,4-triazol-1-yl)methyl)-5-(2,4-difluorophenyl)tetrahydrofuran-3-yl)methoxy)-3-methylphenyl)piperazin-1-yl)- N -(2-hydroxycyclohexyl)benzamide, or a pharmaceutically acceptable salt thereof.
Method for applying a tire component in particular a breaker ply, from an apply member (3, 103) onto a receiving member, wherein the tire component comprises a leading edge, a trailing edge and a first longitudinal edge and a second longitudinal edge extending between the leading edge and the trailing edge, wherein the method comprises the steps of; a) receiving the tire component on the apply member (3, 103); b) detecting a plurality of leading endpoints (E1, E2, E3,..., En) at the leading edge and detecting, for each leading endpoint (E1, E2, E3,..., En), a trailing endpoint (F1, F2, F3,..., Fn) at the trailing edge that together with the respective leading endpoint (E1, E2, E3,..., En) forms a pair of endpoints; c) determining the relative positioning between the leading endpoint (E1, E2, E3,..., En) and the trailing endpoint (F1, F2, F3,..., Fn) for each pair of endpoints; d) driving the apply member (3, 103) at an apply speed to transfer the tire component in a transfer direction onto the receiving member while driving the receiving member at a receiving speed; and e) splicing the trailing edge to the leading edge on the building drum; wherein the ratio between the apply speed and the receiving speed is adjusted for each pair of endpoints (E1-En, F1-Fn) during the transfer in step d) in the order in which said pairs of endpoints (E1-En, F1-Fn) are spliced in step e) to improve the relative positioning of each pair of endpoints (E1-En, F1-Fn) for splicing. a) receiving the tire component on the apply member (3, 103); b) detecting a plurality of leading endpoints (E1, E2, E3,..., En) at the leading edge and detecting, for each leading endpoint (E1, E2, E3,..., En), a trailing endpoint (F1, F2, F3,..., Fn) at the trailing edge that together with the respective leading endpoint (E1, E2, E3,..., En) forms a pair of endpoints; c) determining the relative positioning between the leading endpoint (E1, E2, E3,..., En) and the trailing endpoint (F1, F2, F3,..., Fn) for each pair of endpoints; d) driving the apply member (3, 103) at an apply speed to transfer the tire component in a transfer direction onto the receiving member while driving the receiving member at a receiving speed; and e) splicing the trailing edge to the leading edge on the building drum; wherein the ratio between the apply speed and the receiving speed is adjusted for each pair of endpoints (E1-En, F1-Fn) during the transfer in step d) in the order in which said pairs of endpoints (E1-En, F1-Fn) are spliced in step e) to improve the relative positioning of each pair of endpoints (E1-En, F1-Fn) for splicing.