mhurhangee/ep-ind-claims huggingface dataset:
A pharmaceutical composition, comprising: an active component selected from risperidone or a salt thereof, 9-hydroxy risperidone or a salt thereof; and a polymer blend consisting of a first uncapped poly(lactide-co-glycolide) and a second uncapped poly(lactide-co-glycolide), wherein a weight ratio of the first uncapped poly(lactide-co-glycolide) and the second uncapped poly(lactide-co-glycolide) is:; the first uncapped poly(lactide-co-glycolide) has an intrinsic viscosity of 0.4-0.9 dl/g, a weight average molecular weight of 50,000-145,000, a molar ratio of lactide to glycolide of 65:35 to 90:10; the second uncapped poly(lactide-co-glycolide) has an intrinsic viscosity of 0.1-0.35 dl/g, a weight average molecular weight of 4,000-45,000, a molar ratio of lactide to glycolide of 50:50 to 75:25; a weight content of the active ingredient in the pharmaceutical composition is within a range from 10% to 60%; a weight content of the polymer blend in the pharmaceutical composition is within a range from 40% to 90%; and the pharmaceutical composition is present in the form of microspheres. an active component selected from risperidone or a salt thereof, 9-hydroxy risperidone or a salt thereof; and a polymer blend consisting of a first uncapped poly(lactide-co-glycolide) and a second uncapped poly(lactide-co-glycolide), wherein a weight ratio of the first uncapped poly(lactide-co-glycolide) and the second uncapped poly(lactide-co-glycolide) is:; the first uncapped poly(lactide-co-glycolide) has an intrinsic viscosity of 0.4-0.9 dl/g, a weight average molecular weight of 50,000-145,000, a molar ratio of lactide to glycolide of 65:35 to 90:10; the second uncapped poly(lactide-co-glycolide) has an intrinsic viscosity of 0.1-0.35 dl/g, a weight average molecular weight of 4,000-45,000, a molar ratio of lactide to glycolide of 50:50 to 75:25; a weight content of the active ingredient in the pharmaceutical composition is within a range from 10% to 60%; a weight content of the polymer blend in the pharmaceutical composition is within a range from 40% to 90%; and the pharmaceutical composition is present in the form of microspheres.
A walking assistance moving vehicle comprising: a walking assistance moving vehicle main body with a pair of drive wheels (23,24), the walking assistance moving vehicle main body being configured to assist walking of a user; a drive wheel rotational speed sensor (41,42) configured to sense drive wheel rotational speed of each of the drive wheels; characterized in that a turning sensor configured to directly sense at least one of a first lateral acceleration and a first turning angular velocity during turning of the walking assistance moving vehicle main body; and a controller configured to indirectly acquire at least one of a second lateral acceleration and a second turning angular velocity of the walking assistance moving vehicle main body based on the drive wheel rotational speed sensed by the drive wheel rotational speed sensor (41,42), the controller being further configured to perform a first control to decelerate or stop drive of the drive wheels (23,24) based on a comparison of the first turning angular velocity (ω3) and the second turning angular velocity (ω4) or a comparison of the first lateral acceleration and the second lateral acceleration. a walking assistance moving vehicle main body with a pair of drive wheels (23,24), the walking assistance moving vehicle main body being configured to assist walking of a user; a drive wheel rotational speed sensor (41,42) configured to sense drive wheel rotational speed of each of the drive wheels; characterized in that a turning sensor configured to directly sense at least one of a first lateral acceleration and a first turning angular velocity during turning of the walking assistance moving vehicle main body; and a controller configured to indirectly acquire at least one of a second lateral acceleration and a second turning angular velocity of the walking assistance moving vehicle main body based on the drive wheel rotational speed sensed by the drive wheel rotational speed sensor (41,42), the controller being further configured to perform a first control to decelerate or stop drive of the drive wheels (23,24) based on a comparison of the first turning angular velocity (ω3) and the second turning angular velocity (ω4) or a comparison of the first lateral acceleration and the second lateral acceleration.
A semiconductor device, comprising: a substrate; an internal circuit; a multilayered wiring layer formed over the substrate; an inductor which is formed by use of the multilayered wiring layer and provided so as to surround the internal circuit in a planar view, and both ends of which are coupled to the internal circuit; an upper shield part which is formed by use of the multilayered wiring layer, overlaps the inductor in the planar view, is located in a layer higher than the inductor in a thickness direction, and has plural first openings each overlapping the inductor; and a lower shield part which overlaps the inductor in the planar view and is located in a layer lower than the inductor in the thickness direction; characterized in that the plural first openings each have a rectangular shape and also each have a longitudinal direction parallel to the inductor. a substrate; an internal circuit; a multilayered wiring layer formed over the substrate; an inductor which is formed by use of the multilayered wiring layer and provided so as to surround the internal circuit in a planar view, and both ends of which are coupled to the internal circuit; an upper shield part which is formed by use of the multilayered wiring layer, overlaps the inductor in the planar view, is located in a layer higher than the inductor in a thickness direction, and has plural first openings each overlapping the inductor; and a lower shield part which overlaps the inductor in the planar view and is located in a layer lower than the inductor in the thickness direction; characterized in that the plural first openings each have a rectangular shape and also each have a longitudinal direction parallel to the inductor.
A heat exchanger assembly for an air conditioner, comprising: a first heat exchanger; a second heat exchanger, arranged to be angled relative to the first heat exchanger, wherein a first end of the second heat exchanger is connected with or close to a first end of the first heat exchanger, and a second end of the second heat exchanger is away from a second end of the first heat exchanger; a third heat exchanger, arranged between the first heat exchanger and the second heat exchanger, wherein a first end of the third heat exchanger is connected to a position A of the first heat exchanger, and a second end of the third heat exchanger is connected to the position B of the second heat exchanger, and the position A is located between the first end and the second end of the first heat exchanger, and the position B is located between the first end and the second end of the second heat exchanger; and wherein the plane where the third heat exchanger is located is arranged to face towards an opening between the second end of the second heat exchanger and the second end of the first heat exchanger; wherein the distance from the position A to the first end of the first heat exchanger is y, the distance from the position A to the second end of the first heat exchanger is x, and 1: 7<x: y<1: 5; and wherein the distance from the position B to the first end of the second heat exchanger is b, and the distance from the position B to the second end of the second heat exchanger is a, and 1: 7<a: b< 1: 5. a first heat exchanger; a second heat exchanger, arranged to be angled relative to the first heat exchanger, wherein a first end of the second heat exchanger is connected with or close to a first end of the first heat exchanger, and a second end of the second heat exchanger is away from a second end of the first heat exchanger; a third heat exchanger, arranged between the first heat exchanger and the second heat exchanger, wherein a first end of the third heat exchanger is connected to a position A of the first heat exchanger, and a second end of the third heat exchanger is connected to the position B of the second heat exchanger, and the position A is located between the first end and the second end of the first heat exchanger, and the position B is located between the first end and the second end of the second heat exchanger; and wherein the plane where the third heat exchanger is located is arranged to face towards an opening between the second end of the second heat exchanger and the second end of the first heat exchanger; wherein the distance from the position A to the first end of the first heat exchanger is y, the distance from the position A to the second end of the first heat exchanger is x, and 1: 7<x: y<1: 5; and wherein the distance from the position B to the first end of the second heat exchanger is b, and the distance from the position B to the second end of the second heat exchanger is a, and 1: 7<a: b< 1: 5.
Container for refrigerators, in particular for use as a shelf on an internal surface of a door of the refrigerator, with a shelf for the storage of items to be preserved, which can be opened and closed by means of a front cover which can be rotated around a first set of pins on the lateral portions (50, 60) of the said container to provide a closed configuration in which at least one portion of this cover is in a substantially vertical position and an open configuration in which the said portion is in a substantially horizontal position, characterised in that the said container has an auxiliary upper cover rotationally coupled to the said lateral portions (50, 60), the said auxiliary cover being rotatable around a second set of pins through contact with the said front cover during its opening and/or closing movement.
A magazine assembly (70, 80) for a firearm, the assembly comprising: an outer magazine housing configured for attachment to a firearm having a longitudinal axis defining an axial direction; an elongated magazine removably insertable into the housing, the magazine including an open rear end and axially extending internal cavity configured to hold a plurality of shells in stacked end-to-end relationship; and a shell catch lever slideably mounted at the rear end of the magazine for linear movement parallel to the longitudinal axis, the shell catch lever configured to retain the shells in the magazine in a first lateral position and release the shells from the magazine in a second lateral position; wherein the shell catch lever is configured and operable to retain and release the shells when removed from the magazine housing to allow the magazine to be preloaded before insertion into the housing; wherein the shell catch lever is further pivotably mounted on the magazine for lateral movement transverse to the longitudinal axis between the first and second lateral positions by rotating the shell catch lever; wherein the pivot comprises a triangular protrusion formed on an inner surface of the shell catch lever that engages a complementary configured recess formed in an outer surface of the magazine. an outer magazine housing configured for attachment to a firearm having a longitudinal axis defining an axial direction; an elongated magazine removably insertable into the housing, the magazine including an open rear end and axially extending internal cavity configured to hold a plurality of shells in stacked end-to-end relationship; and a shell catch lever slideably mounted at the rear end of the magazine for linear movement parallel to the longitudinal axis, the shell catch lever configured to retain the shells in the magazine in a first lateral position and release the shells from the magazine in a second lateral position; wherein the shell catch lever is configured and operable to retain and release the shells when removed from the magazine housing to allow the magazine to be preloaded before insertion into the housing; wherein the shell catch lever is further pivotably mounted on the magazine for lateral movement transverse to the longitudinal axis between the first and second lateral positions by rotating the shell catch lever; wherein the pivot comprises a triangular protrusion formed on an inner surface of the shell catch lever that engages a complementary configured recess formed in an outer surface of the magazine.
A pile to be mounted in the ground and/or in rock, which pile is formed of two or more metal pipe parts (4a, 4b, 4c, 4d, 4e) joined to each other successively and comprising an external thread provided at at least one end (15, 16), the pile further comprising one or more sleeves for joining two successive pipe parts (4a, 4b, 4c, 4d, 4e) to each other, which sleeve comprises a first end and a second end as well as a first internal thread in the vicinity of the first end and a second internal thread in the vicinity of the second end, characterized in that the sleeve comprises at its first and second end (7a, 7b) on the inner surface of the sleeve a plane-like first counter surface, and that the two or more metal pipe parts (4a, 4b, 4c, 4d, 4e) joined to each other successively comprise on their outer surface a second plane-like counter surface, the first and the second plane-like counter surface (X1, X2) being arranged to become positioned tightly against each other when the pipe part (4a, 4b, 4c, 4d, 4e) is in place inside the sleeve.
A method for electronically controlling cellular, geographically distributed alarm systems (10/11), wherein by means of a sensor system of a control device, physical measurement parameters of occurring measurement events that necessitate an alarm or operational intervention are triggered, and are filtered based on predefined threshold values, and wherein the alarm systems (10/11) are electronically selected and activated by means of the control device if at least one corresponding threshold value of a measurement event is exceeded, and wherein for activation, activation signals are generated stepwise from grid cell to grid cell by means of the control device and transmitted to the cellular alarm systems (10/11), and the cellular alarm systems (10/11) are correspondingly activated, characterized in that activation parameters of the activation signals generated by the control device are cumulated by means of a counter module of the control device within a predefined time window upon each activation, and are stored as a counter signal in a memory unit of the control device, each activation signal including at least one activation parameter (10/11) [sic; 102] corresponding to the extent of activation of the corresponding alarm system (10/11), and the cumulation taking place by means of normalized units, based on the cumulated counter signal in combination with the geographical distribution of the alarm systems (10/11) within the region monitored by means of the control device and the associated sensor system, associated activation index parameters are determined by means of a Monte Carlo module, the activation index parameters including at least one mean activation of the alarm systems (10/11) in the monitored region, the measurement parameters of the measurement event include geographical location parameters and physical measurement parameters, the activation index parameters being dynamically weighted by means of a filter module after expiration of the time window, based on the geographical location parameters and physical measurement parameters, using the topographical grid of the monitored region, and stored in a grid-based topographical lookup table, wherein for dynamic weighting, the measurement parameters are propagated by means of an extrapolation module of the control device, based on stored modeled event functions, and the extrapolation module carries out the selection of a specified event function based on the measured measurement parameters, the activation signals transmitted to the alarm systems (10/11) are generated stepwise from grid cell to grid cell based on the dynamic lookup table elements, the respective activation parameters of an activation signal corresponding to the respective dynamic lookup table element.
A method of manufacturing an ignition plug having an insulator with an axial hole, a center electrode provided in the axial hole, a substantially cylindrical metal shell and a plate-shaped ground electrode having a through hole formed in a center thereof, the method comprising: preparing (S100, S200, S300, S400, S500, S600) an insulator having a cavity formed at a leading end portion thereof, said cavity formed by disposing a leading end of the center electrode in the axial hole of the insulator such that the leading end of the center electrode is recessed from a leading end of the insulator; assembling (S110, S210, S310, S410, S510, S610) the insulator in an interior of the metal shell; disposing (S130, S230, S330, S430, S530, S630) the ground electrode at a leading end portion of the metal shell; positioning (S130, S230, S330, S430, S530, S630) a center of the through hole of the ground electrode and a center of the cavity of the insulator; and welding (S150, S250, S350, S450, S550, S650) the ground electrode and the metal shell together, characterized in that the center of the through hole in said ground electrode and the center of the cavity of said insulator are axially aligned by fitting a predetermined jig (200, 300, 400) which fits in both the through hole of the ground electrode and the cavity of the insulator. preparing (S100, S200, S300, S400, S500, S600) an insulator having a cavity formed at a leading end portion thereof, said cavity formed by disposing a leading end of the center electrode in the axial hole of the insulator such that the leading end of the center electrode is recessed from a leading end of the insulator; assembling (S110, S210, S310, S410, S510, S610) the insulator in an interior of the metal shell; disposing (S130, S230, S330, S430, S530, S630) the ground electrode at a leading end portion of the metal shell; positioning (S130, S230, S330, S430, S530, S630) a center of the through hole of the ground electrode and a center of the cavity of the insulator; and welding (S150, S250, S350, S450, S550, S650) the ground electrode and the metal shell together, characterized in that the center of the through hole in said ground electrode and the center of the cavity of said insulator are axially aligned by fitting a predetermined jig (200, 300, 400) which fits in both the through hole of the ground electrode and the cavity of the insulator.
Device for subsequent thermally insulating, force-transmitting connection of a second load-absorbing structure part to a first load-absorbing structure part, in particular of a balcony slab to a building ceiling, wherein the device has an insulation body for arrangement in a separating joint between the first structure part and the second structure part and also has tensile-force-transmitting means, compressive-force-transmitting means and transverse-force-transmitting means, wherein the insulation body has a first longitudinal side, which is intended for arrangement on the first structure part, and an oppositely situated second longitudinal side, wherein the insulation body has a longitudinal direction, a transverse direction, which extends perpendicularly to the longitudinal direction and from the first longitudinal side to the second longitudinal side, and a vertical direction, which extends perpendicularly to the longitudinal direction and perpendicularly to the transverse direction, wherein the compressive-force-transmitting means comprise an abutment surface, which is accessible from the second longitudinal side and serves for absorbing horizontal compressive forces of the second structure part, and at least one compressive-force element, which extends at least to the first longitudinal side and is connected in a force-transmitting manner to the abutment surface, wherein the transverse-force-transmitting means comprise a bearing surface, which is accessible from the second longitudinal side and serves for absorbing vertically directed forces of the second structure part, and at least one transverse-force bar, which is connected in a force-transmitting manner to the bearing surface, wherein the abutment surface is formed on a first limb, and the bearing surface is formed on a second limb, of a bearing bracket, wherein the first limb and the second limb of the bearing bracket are connected via at least one side piece which is arranged transversely to the longitudinal direction, wherein the transverse-force bar has an inclined portion which runs obliquely to the vertical direction, characterized in that the at least one transverse-force bar is fixed directly to the side piece by means of its portion that runs in an inclined manner.
A coronary sinus occlusion catheter, comprising: a distal tip portion including an inflatable balloon device configured to engage an interior wall of a coronary sinus when inflated; a distal port arranged distally of the inflatable balloon device so that the distal port extends into the coronary sinus when the inflatable balloon device is inflated in the coronary sinus; an outflow port arranged proximally of the inflatable balloon device so that the outflow port is in fluid communication with the right atrium when the inflatable balloon device is inflated in the coronary sinus, wherein the distal tip portion at least partially defines a fluid flow path from the distal port to the outflow port; and an inner movable member positioned in the flow path from the distal port to the outflow port, wherein the inner movable member is adjustable between a first position in which the flow path from the distal port to the outflow port is occluded and a second position in which the flow path from the distal port to the outflow port is open, characterised by further comprising a proximal hub portion and an actuation line connected to the proximal hub portion for adjusting the position of the inner moveable member and for being connected to a port of a heart-lung machine. a distal tip portion including an inflatable balloon device configured to engage an interior wall of a coronary sinus when inflated; a distal port arranged distally of the inflatable balloon device so that the distal port extends into the coronary sinus when the inflatable balloon device is inflated in the coronary sinus; an outflow port arranged proximally of the inflatable balloon device so that the outflow port is in fluid communication with the right atrium when the inflatable balloon device is inflated in the coronary sinus, wherein the distal tip portion at least partially defines a fluid flow path from the distal port to the outflow port; and an inner movable member positioned in the flow path from the distal port to the outflow port, wherein the inner movable member is adjustable between a first position in which the flow path from the distal port to the outflow port is occluded and a second position in which the flow path from the distal port to the outflow port is open, characterised by further comprising a proximal hub portion and an actuation line connected to the proximal hub portion for adjusting the position of the inner moveable member and for being connected to a port of a heart-lung machine.
Fail-safe drive for an actuating drive, the fail-safe drive having a cam disc, at least one restoring element, a counter-element and an output shaft, the cam disc and the counter-element being configured for the joint conversion of an axial movement of the restoring element into a rotational movement of the output shaft, the restoring element moving along an axial direction which is defined by the output shaft, characterized in that the cam disc has at least one control cam, the profile of which is adapted to a spring characteristic of the at least one restoring element in such a way that, upon activation of the fail-safe drive, a constant output torque can be generated.