mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a pharmaceutical product, produced by a mixture of an excipient and an active pharmaceutical ingredient, comprising: - receiving a mixture of powder or pellet material by an extruder device in a predefined ratio comprising excipient and active pharmaceutical ingredient for extruding as extruded product in a constant flow; - distributing the constant output flow of the extruded product, from the extruder to an input flow directed towards a metering pump that is suited for regulated provision of the extruded product to a print head; - printing a product by the print head comprising one or more nozzles suited for 3D printing of the product in a metered fashion from the flow received by the metering pump; and - distributing part of the constant output flow from the extruder not provided to the print head to a remainder flow directed towards an overflow outlet. - receiving a mixture of powder or pellet material by an extruder device in a predefined ratio comprising excipient and active pharmaceutical ingredient for extruding as extruded product in a constant flow; - distributing the constant output flow of the extruded product, from the extruder to an input flow directed towards a metering pump that is suited for regulated provision of the extruded product to a print head; - printing a product by the print head comprising one or more nozzles suited for 3D printing of the product in a metered fashion from the flow received by the metering pump; and - distributing part of the constant output flow from the extruder not provided to the print head to a remainder flow directed towards an overflow outlet.
A method for aligning relative adjustments of print heads (212; 412; 701; 702; 703; 711; 712; 713; 721; 722; 723; 731; 732; 733) of at least one printing unit (200; 400) of a printing machine to one another, wherein in at least one first partial detection process data about relative adjustments of at least two print heads (212; 412; 701; 702; 711; 721; 722; 731) of a first subset of print heads (212; 412; 701; 702; 703; 711; 712; 713; 721; 722; 723; 731; 732; 733) to one another are detected and wherein in at least one second partial detection process data about relative adjustments of at least two print heads (212; 412; 703; 712; 713; 723; 732; 733) belonging to a second subset of print heads (212; 412; 701; 702; 703; 711; 712; 713; 721; 722; 723; 731; 732; 733) and not belonging to the first subset to one another are detected and wherein from each print head (212; 412; 701; 702; 703; 711; 712; 713; 721; 722; 723; 731; 732; 733) of the at least one first subset proceeding in the transverse direction oriented only in one direction print heads (212; 412; 701; 702; 703; 711; 712; 713; 721; 722; 723; 731; 732; 733) of the at least one second subset are arranged and/or from each print head (212; 412; 701; 702; 703; 711; 712; 713; 721; 722; 723; 731; 732; 733) of the at least one second subset proceeding in the transverse direction oriented only in one direction print heads (212; 412; 701; 702; 703; 711; 712; 713; 721; 722; 723; 731; 732; 733) of the at least one first subset are arranged and wherein in at least one overall detection process data about at least one relative adjustment of at least one first print head (212; 412; 701; 702; 711; 721; 722; 731) of the first subset and at least one second print head (212; 412; 703; 712; 713; 723; 732; 733) of the second subset to one another are detected and wherein at least the at least one first partial detection process and the at least one second partial detection process run simultaneously at least sometimes and wherein at each point in time of the course of the process either the at least one overall detection process hand proceeds on one side or the at least one first partial detection process and/or the at least one second partial detection process proceeds on the other side and wherein in at least one adjustment process the relative adjustments of at least two of the print heads (212; 412; 701; 702; 703; 711; 712; 713; 721; 722; 723; 731; 732; 733) of the at least one printing unit (200; 400) to one another are changed and wherein the data detected in the at least one first partial detection process and/or the data detected in the at least one second partial detection process and/or the data detected in the at least one overall detection process are detected by means of at least two adjustment sensors (740; 741) moveable with respect to the transverse direction, characterized in that at least two adjustment sensors (740; 741) at least sometimes are moved independently from each other at least in the transverse direction.
Alight interference unit comprising: a branching optical element that branches a laser light for which an emission wavelength is temporally swept, into a measurement light and a reference light; a multiplexing optical element that multiplexes the reference light and the measurement light reflected by an object to be measured, and causes the reference light and the measurement light to interfere; and at least one fiber device provided with a separation portion in which the laser light introduced by an optical fiber is temporarily separated from a core of the optical fiber to an outside having a refractive index different from that of the core and then is incident on the core again, wherein the at least one fiber device includes a reference light device served as the fiber device arranged on a light path for the reference light between the branching optical element and the multiplexing optical element; and as a transmission light path length is defined by a light path length of the reference light, which transmits the reference light device, from the reference light device to the multiplexing optical element, and a reflection light path length is defined by a light path length of the reference light, which is reflected by the separation portion of the reference light device, from the reference light device to the multiplexing optical element through the branching optical element, the transmission light path length is equal to or more than the reflection light path length. a branching optical element that branches a laser light for which an emission wavelength is temporally swept, into a measurement light and a reference light; a multiplexing optical element that multiplexes the reference light and the measurement light reflected by an object to be measured, and causes the reference light and the measurement light to interfere; and at least one fiber device provided with a separation portion in which the laser light introduced by an optical fiber is temporarily separated from a core of the optical fiber to an outside having a refractive index different from that of the core and then is incident on the core again, wherein the at least one fiber device includes a reference light device served as the fiber device arranged on a light path for the reference light between the branching optical element and the multiplexing optical element; and as a transmission light path length is defined by a light path length of the reference light, which transmits the reference light device, from the reference light device to the multiplexing optical element, and a reflection light path length is defined by a light path length of the reference light, which is reflected by the separation portion of the reference light device, from the reference light device to the multiplexing optical element through the branching optical element, the transmission light path length is equal to or more than the reflection light path length.
Motor vehicle inner trim component comprising a rigid substrate forming the body of said component and a composite cladding layer covering said substrate so as to form at least the visible face of said component, said composite layer comprising at least a support layer, preferentially in the form of a film or of fibrous nature, such as for example a woven, knitted or non-woven textile, and a thin translucent layer of organic or inorganic natural material, assembled or laminated with the support layer, the visible face of said thin translucent layer itself being covered by a layer of adhesion primer and a layer of varnish, forming the surface layer, the elementary layers (4, 5, 6, 7) mentioned above that together form the composite layer by superposition allowing light transmission through said composite layer, in particular for the production of light images by backlighting, which are visible on the surface of the varnish layer, which trim component is characterized in that the material of the substrate and the material of the support layer are liable to block the diffusion and transmission of the light and in that said substrate and the support layer have through-openings (9, 9') forming, by matching, light passages, opening onto the thin translucent layer and of which the sections define the shapes of the constituent elements of the light image.
Torsion spring comprising screw-thread like spring windings, each spring winding having a ratio V between radial height and the axial width which is between 4 to 6, wherein the torsion spring is rotatable about a torsion angle φ of up to 80° and has a spring rate c of 4 Nm/° to 16 Nm/° and wherein the expansion force F of the torsion spring exerted on the surrounding housing has a maximum of 150 N when rotated according to the previously mentioned torsion angle φ.
A power electronic converter for converting electric energy, the converter comprises a plurality of PE switches, and a control system adapted to transmit control information to the PE switches so that the PE switches are switched in a synchronized manner, wherein the control system comprises a master controller and a plurality of local controllers controlling the PE switches, each local controller connects a unipolar cell of the converter, each cell comprising two of the PE switches and a capacitor, wherein the control system further comprises a plurality of slave devices controlled by the master controller, wherein the control system is configured so that the master controller and the slave devices are connected in a ring network topology, each slave device connects a plurality of the local controllers in a star network topology, wherein the slave devices are configured to control and communicate with the connected local controllers by means of wireless communication, and the master controller comprises means for transmitting control information in both directions of the ring network. the control system further comprises a plurality of slave devices controlled by the master controller, wherein the control system is configured so that the master controller and the slave devices are connected in a ring network topology, each slave device connects a plurality of the local controllers in a star network topology, wherein the slave devices are configured to control and communicate with the connected local controllers by means of wireless communication, and the master controller comprises means for transmitting control information in both directions of the ring network.
A bullnose assembly, comprising: a body and a bullnose tip arranged at a distal end of the body; a compression ring, arranged about an exterior of the body and configured to move with respect to the body upon being actuated; and a plurality of collet fingers coupled to and extending between the compression ring and the bullnose tip, each collet finger being pre-compressed such that each collet finger is predisposed to bow radially outwards, wherein, when the compression ring is actuated, the plurality of collet fingers move radially outward from a first diameter to a second diameter that is greater than the first diameter. a body and a bullnose tip arranged at a distal end of the body; a compression ring, arranged about an exterior of the body and configured to move with respect to the body upon being actuated; and a plurality of collet fingers coupled to and extending between the compression ring and the bullnose tip, each collet finger being pre-compressed such that each collet finger is predisposed to bow radially outwards, wherein, when the compression ring is actuated, the plurality of collet fingers move radially outward from a first diameter to a second diameter that is greater than the first diameter.
A valve stent, comprising: a stent body shaped as a tubular mesh; and at least two attachment lugs, each connected to the stent body and bent and folded toward an interior of the stent body; characterized in that each of the attachment lugs comprises a first bent section and a second bent section; the first bent section is bent and folded toward the interior of the stent body at an angle greater than an angle at which the second bent section is bent and folded toward the interior of the stent body; the first bent section is located closer than the second bent section to the stent body, with respect to an axial direction of the stent body. a stent body shaped as a tubular mesh; and at least two attachment lugs, each connected to the stent body and bent and folded toward an interior of the stent body; characterized in that each of the attachment lugs comprises a first bent section and a second bent section; the first bent section is bent and folded toward the interior of the stent body at an angle greater than an angle at which the second bent section is bent and folded toward the interior of the stent body; the first bent section is located closer than the second bent section to the stent body, with respect to an axial direction of the stent body.
A treatment module, comprising: a tube core of a skeletal structure including longitudinal members and rings, the rings being attached to the longitudinal members; and a loosely-fitting mesh tube sleeve in which the tube core resides, wherein adsorbent particles are deposited on an interior surface of the loosely-fitting mesh tube sleeve, wherein the tube core prevents the mesh tube sleeve from collapsing when water flows from outside to inside of the mesh tube sleeve, and, said treatment module being characterized in that it further comprises prongs, which are disposed on the rings and which hold a rod inside the tube core to keep the tube core straight. a tube core of a skeletal structure including longitudinal members and rings, the rings being attached to the longitudinal members; and a loosely-fitting mesh tube sleeve in which the tube core resides, wherein adsorbent particles are deposited on an interior surface of the loosely-fitting mesh tube sleeve, wherein the tube core prevents the mesh tube sleeve from collapsing when water flows from outside to inside of the mesh tube sleeve, and, said treatment module being characterized in that it further comprises prongs, which are disposed on the rings and which hold a rod inside the tube core to keep the tube core straight.
An optical inspection apparatus comprising: a light radiation unit configured to radiate near infrared light to an article; a light detection unit configured to detect transmitted light of the near infrared light radiated to the article; and a support unit configured to support the light radiation unit (11 and the light detection unit in a cantilever manner; wherein an inspection region of the article by the near infrared_light is exposed to an ambient atmosphere; and wherein the light radiation unit and the light detection unit are rotatable integrally with the support unit about an axis passing a position as a center, the position being at a shorter distance from the light radiation unit than a distance from the light detection unit, and the axis extending horizontally and parallel with the cantilever direction defined by the cantilevered direction of the light radiation unit and the light detection unit. a light radiation unit configured to radiate near infrared light to an article; a light detection unit configured to detect transmitted light of the near infrared light radiated to the article; and a support unit configured to support the light radiation unit (11 and the light detection unit in a cantilever manner; wherein an inspection region of the article by the near infrared_light is exposed to an ambient atmosphere; and wherein the light radiation unit and the light detection unit are rotatable integrally with the support unit about an axis passing a position as a center, the position being at a shorter distance from the light radiation unit than a distance from the light detection unit, and the axis extending horizontally and parallel with the cantilever direction defined by the cantilevered direction of the light radiation unit and the light detection unit.
A pearl-like molded body obtained by molding a mixture comprising an aromatic polyester for dilution and a resin composition, the resin composition comprising: a polyolefin (other than a low-density polyethylene with a density of 0.92 g/cm 3 or less) and an acid-modified polyolefin, wherein the acid-modified polyolefin has an acid value of 1 to 60 mg KOH/g, and a final blending ratio between materials of the pearl-like molded body is 0.1 to 20 parts by mass of the polyolefin and 0.1 to 20 parts by mass of the acid-modified polyolefin with respect to 100 parts by mass of the aromatic polyester.
A nutritional composition in form of gelatin capsules containing curcumin in an amount from 10 to 200 mg and fennel essential oil in an amount from 5 to 50 mg, an emulsifier in an amount from 200 to 700 mg, and pharmaceutically acceptable excipients, for use in the treatment of Irritable Bowel Syndrome, wherein the composition is administered at curcumin daily dosage from 10 to 3200 mg and fennel essential oil daily dosage from 5 to 800 mg, for at least 10 days, wherein the IBS is with mild to moderate symptoms, and with total severity scores between 100 and 300, whereby scores from 75 to 175 give information on IBS with mild symptoms and scores from 175 to 300 give information on IBS with moderate symptoms.
A method comprising: forming metal silicide source material over a substrate; and doping the metal silicide source material; forming a capping material over the metal silicide source material; forming a select gate material over the capping material; forming a vertical string of charge storage memory cells over the select gate material, the string of charge storage memory cells including polysilicon semiconductor channel material in ohmic contact with and extending vertically from the doped metal silicide source material to enable dopant diffusion to occur from the doped metal silicide source material to the polysilicon semiconductor channel during operation. forming metal silicide source material over a substrate; and doping the metal silicide source material; forming a capping material over the metal silicide source material; forming a select gate material over the capping material; forming a vertical string of charge storage memory cells over the select gate material, the string of charge storage memory cells including polysilicon semiconductor channel material in ohmic contact with and extending vertically from the doped metal silicide source material to enable dopant diffusion to occur from the doped metal silicide source material to the polysilicon semiconductor channel during operation.
A thermoplastic polyurethane comprising at least one plasticizer, wherein a first plasticizer (i) is based on glycerol, and at least one hydroxy group of the glycerol has been esterified with a monocarboxylic acid (ii) which comprises 1, 2, 3, 4, 5, or 6 carbon atoms, more preferably 2, 3, or 4 carbon atoms, and very particularly preferably 2 carbon atoms.
A photoelectric conversion element comprising: a first electrode; a hole blocking layer; an electron transport layer; a hole transport layer; and a second electrode, wherein the hole blocking layer comprises a metal oxide that comprises a titanium atom and a niobium atom, and wherein the hole transport layer comprises a hole transport material represented by structural formula below: characterised in that the atomic ratio (Ti:Nb) between the titanium atom and the niobium atom in the hole blocking layer is from 1:1 to 1:4. a first electrode; a hole blocking layer; an electron transport layer; a hole transport layer; and a second electrode, wherein the hole blocking layer comprises a metal oxide that comprises a titanium atom and a niobium atom, and wherein the hole transport layer comprises a hole transport material represented by structural formula below: characterised in that the atomic ratio (Ti:Nb) between the titanium atom and the niobium atom in the hole blocking layer is from 1:1 to 1:4.
A wind power installation comprising a machine frame and a rotor shaft adapted for rotation around a rotation axis and extending between a rotor bearing housing in a front end of the machine frame and a transmission in a rear end of the machine frame, the machine frame comprising a base carrying the rotor shaft, and a stiffening element, detachably attached to, or hinged to the base and extending over the rotor shaft between two attachment points where it is attached to the base without contact to the rotor shaft and therefore without hindering rotation of the rotor shaft whereby the stiffening element stiffens the base during rotation of the rotor shaft, wherein the base forms a right ledge and a left ledge both extending along opposite sides of the rotor shaft, where the stiffening element extends between the right and left ledges (8, 9) above the rotor shaft, and wherein the stiffening element is adapted to transfer force between the right and left ledges, characterised in that the stiffening element is detachably attached to the right ledge at a right rotor side stiffening element mount and at a right transmission side stiffening element mount, and wherein the stiffening element is detachably attached to the left ledge at a left rotor side stiffening element mount and at a left transmission side stiffening element mount.
A creel loading apparatus comprising: a frame; a platform that is movable along the frame on a first axis and a second axis that is perpendicular to the first axis; a rotary actuator that is configured to rotate at least a portion of the platform about the first axis; a gripper that is movably attached to the at least a portion of the platform that is configured to rotate about the first axis, wherein the gripper is configured to releasably engage an inner surface of a yarn package; and a linear actuator that is configured to move the gripper along a linear actuator axis that is perpendicular to the first axis, characterized in that the linear actuator comprises a first stage and a second stage, wherein the first stage comprises a servo motor that is configured to move the gripper along the linear actuator axis, and wherein the second stage comprises a pneumatic actuator that is configured to move the gripper along the linear actuator axis. a frame; a platform that is movable along the frame on a first axis and a second axis that is perpendicular to the first axis; a rotary actuator that is configured to rotate at least a portion of the platform about the first axis; a gripper that is movably attached to the at least a portion of the platform that is configured to rotate about the first axis, wherein the gripper is configured to releasably engage an inner surface of a yarn package; and a linear actuator that is configured to move the gripper along a linear actuator axis that is perpendicular to the first axis, characterized in that the linear actuator comprises a first stage and a second stage, wherein the first stage comprises a servo motor that is configured to move the gripper along the linear actuator axis, and wherein the second stage comprises a pneumatic actuator that is configured to move the gripper along the linear actuator axis.