mhurhangee/ep-ind-claims huggingface dataset:
A co-crystalline form of meloxicam which when administered to a subject has improved bioavailability, an enhanced rate of dissolution and shorter time to C max in blood of meloxicam as compared to pure meloxicam, wherein said crystalline form is co-crystal meloxicam:succinic acid which has a PXRD diffraction pattern with peaks at 13.22, 14.50, 16.41, 18.30, 23.68, 26.59 and 27.67 +/-.2 degrees two-theta, wherein said crystalline form is co-crystal meloxicam:acetylsalicylic acid which has a PXRD diffraction pattern with peaks at 9.57, 13.55, 14.18, 19.49, 22.51, 23.86 and 24.88 +/-.2 degrees two-theta, wherein said crystalline form is co-crystal meloxicam:salicylic acid form III which has a PXRD diffraction pattern with peaks at 9.413, 12.830, 14.869, 16.368, 23.386, 25.781 and 28.875 +/-.2 degrees two-theta, wherein said crystalline form is co-crystal meloxicam: 1-hydroxy-2-naphthoic acid which has a PXRD diffraction pattern with peaks at 6.67, 12.35, 14.92, 16.25, 17.75, 25.93 and 26.88 +/-.2 degrees two-theta, or wherein said crystalline form is co-crystal meloxicam:maleic acid which has a PXRD diffraction pattern with peaks at 8.27, 15.50, 16.35, 18.59, 21.43, 22.58 and 25.69 +/-.2 degrees two-theta, wherein the PXRD diffraction pattern is observed using Cu Kα, 40kV, 40mA.
A gas ultrasonic transducer system for operating a diesel common-rail engine, the gas ultrasonic transducer system comprising: an electronic control unit; a water tank; a gas tank with a gas supply shut-off valve; a gas level sensor; a gas pump operably connected with the gas tank; a water pump operably connected with the water tank; a mixer comprising a water level sensor and an ultrasonic transducer adapted to generate water vapor and gas mixture; wherein the mixer comprises two compartments: an upper compartment and a lower compartment (104"); the means for separation of the upper compartment and the lower compartment (104") comprising an anti-reflux valve adapted to allow water vapor from the lower compartment (104") to pass through the anti-reflux valve to the upper compartment and to prevent liquid water from flowing into the upper compartment; wherein the upper compartment of the mixer comprises an outlet configured to be operably connected with an engine intake manifold; wherein the outlet of the gas pump is configured to be operably connected with the upper compartment of the mixer and the outlet of the water pump is configured to be operably connected with the lower compartment (104") of the mixer where the ultrasonic transducer is at least partially located in the lower compartment (104") of the mixer.
A multiport amplifier which includes an input hybrid (3a, 3Da) configured to receive a plurality of input signals corresponding to a plurality of channels, an output hybrid configured to output a plurality of output signals corresponding to said plurality of input signals from a plurality of output terminals (9a through 9d), a channel assignment part adapted to output a first signal on which an assignment of the plurality of input signals to frequency components corresponding to individual channels of said plurality of channels is based, and a plurality of amplifiers (7a - 7d) and a plurality of gain and phase control circuits (4a -4d, 4Da -4Dd) which are inserted between said input hybrid (3a, 3Da) and said output hybrid, each amplifier having a corresponding gain control circuit and phase control circuit coupled to its input, wherein said plurality of amplifiers (7a -7d) are configured to be combined in parallel with one another, said multiport amplifier comprising: a plurality of output coupling circuits (8a through 8d) that are inserted between said output hybrid and said plurality of output terminals (9a through 9d) and are configured to receive output extraction signals corresponding to said plurality of output signals; and a feedback circuit that is inserted between said plurality of output coupling circuits (8a -8d) and said plurality of gain and phase control circuits (4a -4d, 4Da -4Dd) and is configured to reduce an amplitude difference and a phase difference among the plurality of output signals to reduce unnecessary frequency components included in each of the output signals; wherein said feedback circuit includes at least one frequency selection circuit adapted to decide passing frequencies based on a second signal output by the channel assignment part. a plurality of output coupling circuits (8a through 8d) that are inserted between said output hybrid and said plurality of output terminals (9a through 9d) and are configured to receive output extraction signals corresponding to said plurality of output signals; and a feedback circuit that is inserted between said plurality of output coupling circuits (8a -8d) and said plurality of gain and phase control circuits (4a -4d, 4Da -4Dd) and is configured to reduce an amplitude difference and a phase difference among the plurality of output signals to reduce unnecessary frequency components included in each of the output signals; wherein said feedback circuit includes at least one frequency selection circuit adapted to decide passing frequencies based on a second signal output by the channel assignment part.
Container for dental implants, comprising a holding base, an upper extremity and at least a closure element associable with said upper extremity, a body (11, 12) insertable to measure in said container and, in turn, comprising at least a first housing seat of a dental implant, characterized by the fact that said body (11, 12) comprises at least a second housing seat of a supporting element for the dental implantology, and at least two sheet-shaped elements associable with each other by interposition of coupling means (13, 14) to define at least one of said housing seats (15, 20), and by the fact that said coupling means (13, 14) comprise at least one pair of notches each of which is formed in the proximity of the lower end portion of said sheet-shaped elements (11, 12) which are formed below said housing seats (15, 20) and are able to allow the association by mutual sliding of said sheet-shaped elements (11, 12).
A blood flow conduit, comprising: a first conduit portion defining a first portion of a lumen; and a second conduit portion defining a second portion of the lumen; wherein: at least one of the first or second conduit portions (26, 30) includes a tip portion and the other of the first or second conduit portions (26, 30) includes an enlarged area, the tip portion (10a, 26a) extending at least partially into the enlarged area in a manner designed to prevent contact between the tip portion and an inner wall of the enlarged area as blood flows through the lumen and to allow the first conduit portion to move or swivel inside the enlarged area without contacting the inner wall of the enlarged area; and the tip portion includes an inner wall with a surface roughness less than a surface roughness of the inner wall of the enlarged area. a first conduit portion defining a first portion of a lumen; and a second conduit portion defining a second portion of the lumen; wherein: at least one of the first or second conduit portions (26, 30) includes a tip portion and the other of the first or second conduit portions (26, 30) includes an enlarged area, the tip portion (10a, 26a) extending at least partially into the enlarged area in a manner designed to prevent contact between the tip portion and an inner wall of the enlarged area as blood flows through the lumen and to allow the first conduit portion to move or swivel inside the enlarged area without contacting the inner wall of the enlarged area; and the tip portion includes an inner wall with a surface roughness less than a surface roughness of the inner wall of the enlarged area. at least one of the first or second conduit portions (26, 30) includes a tip portion and the other of the first or second conduit portions (26, 30) includes an enlarged area, the tip portion (10a, 26a) extending at least partially into the enlarged area in a manner designed to prevent contact between the tip portion and an inner wall of the enlarged area as blood flows through the lumen and to allow the first conduit portion to move or swivel inside the enlarged area without contacting the inner wall of the enlarged area; and the tip portion includes an inner wall with a surface roughness less than a surface roughness of the inner wall of the enlarged area.
The condensed-cyclic compound represented by any one of Formulas 2g-1, 2h-1, 2g-2, and 2h-2: wherein A 1 and A 2 are, each independently, a divalent linking group represented by - [C(Q 1)(Q 2)] q - where Q 1 and Q 2 are, each independently, selected from the group consisting of a hydrogen atom, a heavy hydrogen atom, a halogen atom, a hydroxyl group, a cyano group, a substituted or unsubstituted C 1 -C 10 alkyl group, a substituted or unsubstituted C 1 -C 10 alkoxy group, a substituted or unsubstituted C 6 -C 16 aryl group, and a substituted or unsubstituted C 3 -C 16 hetero aryl group, and q is an integer from 1 to 3; R 1 and R 2 are, each independently, selected from the group consisting of a hydrogen atom, a heavy hydrogen atom, a halogen atom, a hydroxyl group, a cyano group, a substituted or unsubstituted C 1 -C 10 alkyl group, a substituted or unsubstituted C 1 -C 10 alkoxy group, a substituted or unsubstituted C 6 -C 16 aryl group, a substituted or unsubstituted C 3 -C 16 hetero aryl group, and a group represented by -N(Q 3)(Q 4) where Q 3 and Q 4 are, each independently, selected from the group consisting of a hydrogen atom, a heavy hydrogen atom, a halogen atom, a hydroxyl group, a cyano group, a substituted or unsubstituted C 1 -C 10 alkyl group, a substituted or unsubstituted C 1 -C 10 alkoxy group, a substituted or unsubstituted C 6 -C 16 aryl group, and a substituted or unsubstituted C 3 -C 16 hetero aryl group, Q 3 and Q 4 are optionally fused with each other, or linked to each other by a single bond, a double bond, or a C 1 -C 3 alkylene group; and Z 1 to Z 8 and Z 11 to Z 18 are, each independently, selected from the group consisting of a hydrogen atom, a heavy hydrogen atom, a halogen atom, a hydroxyl group, a cyano group, a substituted or unsubstituted C 1 -C 10 alkyl group, a substituted or unsubstituted C 1 -C 10 alkoxy group, a substituted or unsubstituted C 6 -C 16 aryl group, a substituted or unsubstituted C 3 -C 16 hetero aryl group, and a group represented by a group represented by-N(Q 5)(Q 6) wherein Q 5 and Q 6 are, each independently, selected from the group consisting of a hydrogen atom, a heavy hydrogen atom, a halogen atom, a hydroxyl group, a cyano group, a substituted or unsubstituted C 1 -C 10 alkyl group, a substituted or unsubstituted C 1 -C 10 alkoxy group, a substituted or unsubstituted C 6 -C 16 aryl group, and a substituted or unsubstituted C 3 -C 16 hetero aryl group, and Q 5 and Q 6 are optionally fused with each other, or linked to each other by a single bond, a double bond, or a C 1 -C 3 alkylene group.
Joint fork for a universal joint, comprising two fork arms which are aligned parallel to one another and have two bores arranged on the same bore axis, each bore having an inner surface which runs coaxially around the bore axis and is designed to receive a bearing sleeve which is designed for rolling bodies, wherein the cross-section of the bore is formed at least in sections as an arcuate polygon, characterized in that the arc polygon is an orbiform curve.
An articulating connector to secure a polyaxial vertebral anchor to a stabilizing rod, the articulating connector comprising: a common trajectory split lock having an axis, the common trajectory split lock comprising: a first lock (106, 1200) configured to engage rigidly the articulating connector in a selected pivotal configuration with respect to a spherical head end of the polyaxial vertebral anchor through a common trajectory extending along the axis; and a second lock (106, 108, 112) configured to engage rigidly the stabilizing rod at selected configurable height and rotational configuration with respect to the polyaxial vertebral anchor through the common trajectory along the axis, wherein the pivotal configuration of the first lock (106, 1200) and the height and rotational configuration of the second lock (106, 108, 112) are independently adjustable through the common trajectory of the common trajectory split lock. a common trajectory split lock having an axis, the common trajectory split lock comprising: a first lock (106, 1200) configured to engage rigidly the articulating connector in a selected pivotal configuration with respect to a spherical head end of the polyaxial vertebral anchor through a common trajectory extending along the axis; and a second lock (106, 108, 112) configured to engage rigidly the stabilizing rod at selected configurable height and rotational configuration with respect to the polyaxial vertebral anchor through the common trajectory along the axis, wherein the pivotal configuration of the first lock (106, 1200) and the height and rotational configuration of the second lock (106, 108, 112) are independently adjustable through the common trajectory of the common trajectory split lock. a first lock (106, 1200) configured to engage rigidly the articulating connector in a selected pivotal configuration with respect to a spherical head end of the polyaxial vertebral anchor through a common trajectory extending along the axis; and a second lock (106, 108, 112) configured to engage rigidly the stabilizing rod at selected configurable height and rotational configuration with respect to the polyaxial vertebral anchor through the common trajectory along the axis, wherein the pivotal configuration of the first lock (106, 1200) and the height and rotational configuration of the second lock (106, 108, 112) are independently adjustable through the common trajectory of the common trajectory split lock.
Method for transferring a tool component (3a, 3b) between a work station of a packaging machine and a tool cart that is configured to receive said tool component (3a, 3b), comprising the following steps: horizontally aligning said tool cart relative to said work station and/or said packaging machine, horizontally locking said tool cart relative to said work station and/or said packaging machine, vertically lifting a frame of said tool cart by way of a lifting device until a stop element of said tool cart abuts against an underside of said work station and/or said packaging machine, wherein said stop element abutting against said underside of said work station and/or said packaging machine aligns said tool cart vertically relative to said work station and/or said packaging machine, wherein the horizontal locking occurs independently of the vertical lifting, transferring said tool component (3a, 3b) between said tool cart and said work station. horizontally aligning said tool cart relative to said work station and/or said packaging machine, horizontally locking said tool cart relative to said work station and/or said packaging machine, vertically lifting a frame of said tool cart by way of a lifting device until a stop element of said tool cart abuts against an underside of said work station and/or said packaging machine, wherein said stop element abutting against said underside of said work station and/or said packaging machine aligns said tool cart vertically relative to said work station and/or said packaging machine, wherein the horizontal locking occurs independently of the vertical lifting, transferring said tool component (3a, 3b) between said tool cart and said work station.
A method of data communication for an inflatable air mattress system architecture, the method comprising: receiving, at a central controller, a command, from a remote control (312, 314), to adjust a feature of a first component (306, 308) of an air mattress framework, wherein the first component is a controller that includes a processor, a storage device, and a network interface; processing the command to determine an appropriate component to which to route the received command; relaying, from the central controller, the command to the first component; receiving from the first component at the central controller, an indication of the success of the command; and relaying the indication from the central controller to the remote control, wherein: the central controller is responsible for pressure regulation; and the first component is one of an articulation controller and a temperature controller. receiving, at a central controller, a command, from a remote control (312, 314), to adjust a feature of a first component (306, 308) of an air mattress framework, wherein the first component is a controller that includes a processor, a storage device, and a network interface; processing the command to determine an appropriate component to which to route the received command; relaying, from the central controller, the command to the first component; receiving from the first component at the central controller, an indication of the success of the command; and relaying the indication from the central controller to the remote control, wherein: the central controller is responsible for pressure regulation; and the first component is one of an articulation controller and a temperature controller. the central controller is responsible for pressure regulation; and the first component is one of an articulation controller and a temperature controller.
An article comprising a substrate having a first surface and a melt coated layer having a first major surface and a second major surface, the first major surface of the melt coated layer being disposed upon the first surface of the substrate, wherein the melt coated layer is continuous and comprises a melt coated composition selected from the group consisting of: (a) one or more acrylic polymers having a collective weight average molecular weight of at least 200,000, and the melt coated layer has a coating weight less than 25 g/m 2, is free of solvents, and contains no more than 1% by weight of gelled acrylic polymer; (b) one or more thermoplastic elastomers having a collective melt viscosity greater than 20 Pa•s (20,000 cP), measured by oscillatory dynamic mechanical analysis using 25 mm parallel plates at the coating temperature and 100 sec -1 shear rate, and the melt coated layer has a coating weight less than 12 g/m 2; (c) one or more natural rubbers or synthetic rubbers, none of which are thermoplastic elastomers, having a collective weight average molecular weight of at least 200,000 g/mol and a collective melt viscosity greater than 50 Pa•s (50,000 cP), measured by oscillatory dynamic mechanical analysis using 25 mm parallel plates at the coating temperature and 100 sec -1 shear rate, and the melt coated layer has a coating weight less than 29 g/m 2; and (d) one or more nonelastomeric thermoplastic polymers having a collective weight average molecular weight of from 50,000 to 3,000,000 g/mol, and the melt coated layer has a coating weight less than 17 g/m 2 and is free of solvents; wherein the weight average molecular weights are determined by gel permeation chromatography. (a) one or more acrylic polymers having a collective weight average molecular weight of at least 200,000, and the melt coated layer has a coating weight less than 25 g/m 2, is free of solvents, and contains no more than 1% by weight of gelled acrylic polymer; (b) one or more thermoplastic elastomers having a collective melt viscosity greater than 20 Pa•s (20,000 cP), measured by oscillatory dynamic mechanical analysis using 25 mm parallel plates at the coating temperature and 100 sec -1 shear rate, and the melt coated layer has a coating weight less than 12 g/m 2; (c) one or more natural rubbers or synthetic rubbers, none of which are thermoplastic elastomers, having a collective weight average molecular weight of at least 200,000 g/mol and a collective melt viscosity greater than 50 Pa•s (50,000 cP), measured by oscillatory dynamic mechanical analysis using 25 mm parallel plates at the coating temperature and 100 sec -1 shear rate, and the melt coated layer has a coating weight less than 29 g/m 2; and (d) one or more nonelastomeric thermoplastic polymers having a collective weight average molecular weight of from 50,000 to 3,000,000 g/mol, and the melt coated layer has a coating weight less than 17 g/m 2 and is free of solvents;
A car body assembly of a freight train, comprising at least two bogies, and an underframe and a car body both supported on the two bogies, wherein the car body comprises a middle car body, and a discharge opening of the middle car body is arranged between the two bogies, and at least one end of the middle car body is further provided with an end car body, and a predetermined space is defined above the respective bogie by adjacent end walls of the middle car body and the end car body; and wherein a bottom of the end car body is further provided with a ridge structure extending longitudinally, the ridge structure protrudes upward to form an inverted V-shaped structure, and a first discharge opening and a second discharge opening which are in communication with an inner cavity of the end car body are respectively provided at two side of the ridge structure; and wherein lower ends of two side walls of the ridge structure fit close to the underframe, and the two side walls of the ridge structure and an upper surface of the underframe form a communication passage extending through a bottom portion of the end car body, and the predetermined space is in communication with an outer end wall of the end car body via the communication passage, and a longitudinal center sill is arranged on the underframe at a position corresponding to the ridge structure, the two side walls of the ridge structure abut against the center sill and are supported by the center sill, and the two side walls of the ridge structure and the center sill form the communication passage. wherein a bottom of the end car body is further provided with a ridge structure extending longitudinally, the ridge structure protrudes upward to form an inverted V-shaped structure, and a first discharge opening and a second discharge opening which are in communication with an inner cavity of the end car body are respectively provided at two side of the ridge structure; and wherein lower ends of two side walls of the ridge structure fit close to the underframe, and the two side walls of the ridge structure and an upper surface of the underframe form a communication passage extending through a bottom portion of the end car body, and the predetermined space is in communication with an outer end wall of the end car body via the communication passage, and a longitudinal center sill is arranged on the underframe at a position corresponding to the ridge structure, the two side walls of the ridge structure abut against the center sill and are supported by the center sill, and the two side walls of the ridge structure and the center sill form the communication passage.
A crystalline form C of 6-(4-chlorophenoxy)-tetrazolo[5,1- a]phthalazine, characterized by the following properties: i) an X-ray powder diffraction pattern having characteristic peaks expressed in degrees 2θ at 8.24, 9.60, 10.07, 11.58, 12.27, 12.74, 13.69, 14.25, 15.17, 16.73, 17.45, 17.92, 18.72, 19.16, 20.35, 21.53, 22.12, 23.37, 23.96, 25.05, 26.62, 28.78, 29.23, 33.84. i) an X-ray powder diffraction pattern having characteristic peaks expressed in degrees 2θ at 8.24, 9.60, 10.07, 11.58, 12.27, 12.74, 13.69, 14.25, 15.17, 16.73, 17.45, 17.92, 18.72, 19.16, 20.35, 21.53, 22.12, 23.37, 23.96, 25.05, 26.62, 28.78, 29.23, 33.84.