mhurhangee/patent-ind-claim-en huggingface dataset:
A rotary valve assembly comprising: a valve element rotatably mountable within a flow passage for rotary motion between an open position in which it permits flow through the flow passage and a closed position in which it blocks flow through the flow passage ; and an actuation mechanism comprising a threaded drive spindle ; a threaded drive nut received on said drive spindle for movement along said drive spindle ; a telescopic drive link having a first element rotationally coupled to said drive nut and a second element rotationally fixedly coupled to said valve element for rotationally driving said valve element , one of said first and second elements being telescopically received within the other of said first and second elements ; a housing comprising a duct portion receiving said valve element and an actuator portion receiving said actuation mechanism , said duct portion extending from an inlet to an outlet in an axial direction; characterised by further comprising: an electric drive motor coupled to the threaded drive spindle; and in that the actuation portion comprises a portion overhanging a side of said duct portion , the drive motor being at least partially arranged in said overhanging portion and arranged to drive the threaded drive spindle about a common axis also extending in the axial direction. a valve element rotatably mountable within a flow passage for rotary motion between an open position in which it permits flow through the flow passage and a closed position in which it blocks flow through the flow passage ; and an actuation mechanism comprising a threaded drive spindle ; a threaded drive nut received on said drive spindle for movement along said drive spindle ; a telescopic drive link having a first element rotationally coupled to said drive nut and a second element rotationally fixedly coupled to said valve element for rotationally driving said valve element , one of said first and second elements being telescopically received within the other of said first and second elements ; a housing comprising a duct portion receiving said valve element and an actuator portion receiving said actuation mechanism , said duct portion extending from an inlet to an outlet in an axial direction; characterised by further comprising: an electric drive motor coupled to the threaded drive spindle; and in that the actuation portion comprises a portion overhanging a side of said duct portion , the drive motor being at least partially arranged in said overhanging portion and arranged to drive the threaded drive spindle about a common axis also extending in the axial direction.
A system, comprising: a flexible bulk container comprising: a top wall , a bottom wall , and at least one sidewall , the top wall , the bottom wall and the at least one sidewall defining an internal space ; an access portion associated with the top wall for accessing the internal space through an open end of the access portion , the access portion comprising a filling spout extending from the top wall ; characterised by a position marker located at a predetermined position on the filling spout for detection by a detector of a robotic system ; and wherein the flexible bulk container is configured so that in a folded state, the flexible bulk container has an upper fold face , an upper fold edge , a lower fold edge and two oppositely facing side fold edges and the flexible bulk container is further configured to be folded such that the filling spout is folded flat on the upper fold face with the position marker facing upwardly; and the system further comprising: an insert which is sized and shaped to position the filling spout at a predetermined access portion position relative to at least one of the upper fold edge , the lower fold edge or the side fold edges of the flexible bulk container , when the flexible bulk container is empty and folded with the filling spout laying on the upper fold face of the folded flexible bulk container . a top wall , a bottom wall , and at least one sidewall , the top wall , the bottom wall and the at least one sidewall defining an internal space ; an access portion associated with the top wall for accessing the internal space through an open end of the access portion , the access portion comprising a filling spout extending from the top wall ; characterised by a position marker located at a predetermined position on the filling spout for detection by a detector of a robotic system ; and wherein the flexible bulk container is configured so that in a folded state, the flexible bulk container has an upper fold face , an upper fold edge , a lower fold edge and two oppositely facing side fold edges and the flexible bulk container is further configured to be folded such that the filling spout is folded flat on the upper fold face with the position marker facing upwardly; and the system further comprising: an insert which is sized and shaped to position the filling spout at a predetermined access portion position relative to at least one of the upper fold edge , the lower fold edge or the side fold edges of the flexible bulk container , when the flexible bulk container is empty and folded with the filling spout laying on the upper fold face of the folded flexible bulk container .
A method of making a nanoparticle or microparticle ocular implant comprising a) 99 to 60 % (w/w) of a photopolymerizable composition selected from the group consisting of fragments or monomers of polyalkylene glycol diacrylate and polyalkylene glycol dimethacrylate, wherein the photopolymerizable composition has a molecular weight in the range of 100 to 20,000 Dalton; b) a biodegradable polymer selected from the group consisting of lactide/glycolide co-polymer (PLGA), polylactic acid (PLA), polyglycolic acid (PGA), polycaprolactone (PCL), lactide/caprolactone copolymer (PLC), poly (L-lactide) (PLLA) and mixtures, copolymers, and block copolymers thereof; c) a photoinitiator; and d) a therapeutic agent, the method comprising the steps of: I) mixing the therapeutic agent, the photopolymerizable composition, and the biodegradable polymer, to form mixture i); II) adding the photoinitiator to form mixture ii); III) irradiating the mixture ii) with light at a wavelength of between 230 to 550 nm, between 300 to 525 nm, or between 350 to 490 nm for between 1 second and 60 minutes; and IV) processing the irradiated mixture ii) to obtain particles. a) 99 to 60 % (w/w) of a photopolymerizable composition selected from the group consisting of fragments or monomers of polyalkylene glycol diacrylate and polyalkylene glycol dimethacrylate, wherein the photopolymerizable composition has a molecular weight in the range of 100 to 20,000 Dalton; b) a biodegradable polymer selected from the group consisting of lactide/glycolide co-polymer (PLGA), polylactic acid (PLA), polyglycolic acid (PGA), polycaprolactone (PCL), lactide/caprolactone copolymer (PLC), poly (L-lactide) (PLLA) and mixtures, copolymers, and block copolymers thereof; c) a photoinitiator; and d) a therapeutic agent, I) mixing the therapeutic agent, the photopolymerizable composition, and the biodegradable polymer, to form mixture i); II) adding the photoinitiator to form mixture ii); III) irradiating the mixture ii) with light at a wavelength of between 230 to 550 nm, between 300 to 525 nm, or between 350 to 490 nm for between 1 second and 60 minutes; and IV) processing the irradiated mixture ii) to obtain particles.
A method for producing a lens to be fitted to an eye, comprising the steps of: generating a compound radical; and hydrophilizing a surface of a polymer lens by reacting with the compound radical, wherein in the compound radical generation step, a radical generation reaction system is irradiated with light, and the compound radical is a radical containing one element selected from the group consisting of Group 15 elements and Group 16 elements, and a Group 17 element. generating a compound radical; and hydrophilizing a surface of a polymer lens by reacting with the compound radical, wherein in the compound radical generation step, a radical generation reaction system is irradiated with light, and the compound radical is a radical containing one element selected from the group consisting of Group 15 elements and Group 16 elements, and a Group 17 element.
A hinge for an orthopedic device, comprising: a hinge body forming an articulating section extending between a first end and a second end of the hinge and adapted to bend from a neutral axis (N-N) when the first end and the second end are parallel to an angular range in which the first end is arranged among a plurality of angles within the angular range relative to the second end , the hinge body defining a receptacle oriented parallel along the neutral axis in the articulating section ; an insert arranged for insertion into the receptacle , the insert modifying the stiffness of the hinge in the angular range and arranged parallel to the neutral axis (N-N), wherein the insert has a greater stiffness than the articulating section of the hinge body ; wherein the hinge body is monolithic and continuously formed from a single material from the first end to the second end of the hinge ; wherein the hinge body includes a first strut and a second strut each arranged on opposed ends of the articulating section , the first strut and the second strut having a first width (w1) transverse to the neutral axis (N-N), and the articulating section having a second width (w2) more narrow than the first width (w1). a hinge body forming an articulating section extending between a first end and a second end of the hinge and adapted to bend from a neutral axis (N-N) when the first end and the second end are parallel to an angular range in which the first end is arranged among a plurality of angles within the angular range relative to the second end , the hinge body defining a receptacle oriented parallel along the neutral axis in the articulating section ; an insert arranged for insertion into the receptacle , the insert modifying the stiffness of the hinge in the angular range and arranged parallel to the neutral axis (N-N), wherein the insert has a greater stiffness than the articulating section of the hinge body ; wherein the hinge body is monolithic and continuously formed from a single material from the first end to the second end of the hinge ; wherein the hinge body includes a first strut and a second strut each arranged on opposed ends of the articulating section , the first strut and the second strut having a first width (w1) transverse to the neutral axis (N-N), and the articulating section having a second width (w2) more narrow than the first width (w1).
A method of manufacturing a batch of component carriers , the method comprising: providing a plurality of separate wafer structures each comprising a plurality of electronic components on a base structure comprising at least one electrically conductive layer structure and/or at least one electrically insulating layer structure , wherein all wafer structures are arranged within a common plane; simultaneously laminating the wafer structures with at least one further electrically conductive layer structure and/or at least one further electrically insulating layer structure to form a cover structure to cover the wafer structures and part of the base structure ; singularizing a structure resulting from the laminating into the plurality of component carriers , each comprising at least one of the electronic components , a part of the at least one further electrically conductive layer structure and/or a part of the at least one further electrically insulating layer structure , and a part of the at least one electrically conductive layer structure of the base structure and/or at least one electrically insulating layer structure of the base structure . providing a plurality of separate wafer structures each comprising a plurality of electronic components on a base structure comprising at least one electrically conductive layer structure and/or at least one electrically insulating layer structure , wherein all wafer structures are arranged within a common plane; simultaneously laminating the wafer structures with at least one further electrically conductive layer structure and/or at least one further electrically insulating layer structure to form a cover structure to cover the wafer structures and part of the base structure ; singularizing a structure resulting from the laminating into the plurality of component carriers , each comprising at least one of the electronic components , a part of the at least one further electrically conductive layer structure and/or a part of the at least one further electrically insulating layer structure , and a part of the at least one electrically conductive layer structure of the base structure and/or at least one electrically insulating layer structure of the base structure .
A ram air turbine comprising: a turbine comprising a blade ; a strut removably coupled to the turbine , wherein the strut comprises an integral gearbox section and an integral drive section ; wherein the strut comprises a generator adapter section integral with the drive section, wherein the drive section comprises a first end proximate the gearbox section and a second end, opposite the first end, proximate the generator adapter section, a turbine shaft comprising a bevel gear oriented perpendicularly to the turbine shaft and positioned within the gearbox section ; a pinion gear comprising a gear face and a gear body opposite the gear face, the gear body having an interior and exterior surface, and a pinion bearing coupled about the exterior surface of the gear body, wherein the pinion gear engages the bevel gear, the pinion gear comprising a key , a pinion retainer coupled to the drive section proximate the pinion bearing at the first end of the drive section, and a driveshaft comprising a flange and a keyed joint and coupled at the interior surface of the gear body to the pinion gear that engages the bevel gear , wherein the flange of the driveshaft retains the pinion bearing in abutment against the pinion gear; wherein the key of the pinion gear is configured to interact with the keyed joint of the drive shaft, wherein the driveshaft extends entirely through the gear body and the pinion gear, wherein a portion of the driveshaft extending entirely through the gear body comprises a spanner nut coupled to an end of the driveshaft, wherein the spanner nut retains the pinion gear axially with respect to the driveshaft, and wherein the driveshaft is positioned within the drive section and is removably coupled to a power conversion device . a turbine comprising a blade ; a strut removably coupled to the turbine , wherein the strut comprises an integral gearbox section and an integral drive section ; wherein the strut comprises a a pinion gear comprising a gear face and a gear body opposite the gear face, the gear body having an interior and exterior surface, and a pinion bearing coupled about the exterior surface of the gear body, wherein the pinion gear engages the bevel gear, the pinion gear comprising a key , a pinion retainer coupled to the drive section proximate the pinion bearing at the first end of the drive section, and a driveshaft comprising a flange and a keyed joint and coupled at the interior surface of the gear body to the pinion gear that engages the bevel gear , wherein the flange of the driveshaft retains the pinion bearing in abutment against the pinion gear; wherein the key of the pinion gear is configured to interact with the keyed joint of the drive shaft, wherein the driveshaft extends entirely through the gear body and the pinion gear, wherein a portion of the driveshaft extending entirely through the gear body comprises a spanner nut coupled to an end of the driveshaft, wherein the spanner nut retains the pinion gear axially with respect to the driveshaft, and wherein the driveshaft is positioned within the drive section and is removably coupled to a power conversion device .
Dosing dispenser for simultaneous or selective discharge of two liquid, gel-like or pasty media, comprising - an outlet opening , - a first storage chamber for storing a first medium, - a first dosing conveying apparatus for conveying the first medium from the first storage chamber , - a second storage chamber for storing a second medium, - a second dosing conveying apparatus for conveying the second medium from the second storage chamber , - a mixing chamber arranged upstream of the outlet opening, wherein the first medium conveyed by means of the first dosing conveying apparatus and/or the second medium conveyed by means of the second dosing conveying apparatus can be stored temporarily in the mixing chamber, and - a discharge conveying apparatus for conveying the medium or the media from the mixing chamber to the outlet opening , wherein at least the first dosing conveying apparatus is in the form of a dosing pumping apparatus comprising a dosing chamber with a variable volume, an inlet which is connected fluidically to the first storage chamber and which has an inlet valve , and an outlet which is connected fluidically to the mixing chamber and which has an outlet valve , characterized in that the mixing chamber has a variable volume, wherein the volume can be enlarged passively by inflowing medium or inflowing media and can be reduced in size by means of the discharge conveying apparatus for discharging the medium or the media. - an outlet opening , - a first storage chamber for storing a first medium, - a first dosing conveying apparatus for conveying the first medium from the first storage chamber , - a second storage chamber for storing a second medium, - a second dosing conveying apparatus for conveying the second medium from the second storage chamber , - a mixing chamber arranged upstream of the outlet opening, wherein the first medium conveyed by means of the first dosing conveying apparatus and/or the second medium conveyed by means of the second dosing conveying apparatus can be stored temporarily in the mixing chamber, and - a discharge conveying apparatus for conveying the medium or the media from the mixing chamber to the outlet opening ,
A wireless power receiver , comprising: a conductor configured to receive wireless power in form of induced current from a wireless power transmitter ; a power processing unit configured to process the wireless power received from the conductor ; a first connecting unit configured to connect a first point of the conductor to the power processing unit ; and a second connecting unit configured to connect a second point of the conductor to the power processing unit ; wherein the conductor is implemented as a metal case of the wireless power receiver and comprises a main slit which is a cutout portion within the conductor , for allowing the induced current to flow from the first point to the second point in a path substantially in the form of a loop. a conductor configured to receive wireless power in form of induced current from a wireless power transmitter ; a power processing unit configured to process the wireless power received from the conductor ; a first connecting unit configured to connect a first point of the conductor to the power processing unit ; and a second connecting unit configured to connect a second point of the conductor to the power processing unit ; wherein the conductor is implemented as a metal case of the wireless power receiver and comprises a main slit which is a cutout portion within the conductor , for allowing the induced current to flow from the first point to the second point in a path substantially in the form of a loop.
A glass-based article, comprising: SiO 2 , Al 2 O 3 , and P 2 O 5 ; and a hydrogen-containing layer extending from a surface of the glass-based article to a depth of layer, wherein: a hydrogen concentration of the hydrogen-containing layer decreases from a maximum hydrogen concentration to the depth of layer; and the depth of layer is at greater than 5 μm; and wherein P 2 O 5 is present at the center of the glass-based article in an amount from greater than or equal to 4 mol% to less than or equal to 15 mol%. SiO 2 , Al 2 O 3 , and P 2 O 5 ; and a hydrogen-containing layer extending from a surface of the glass-based article to a depth of layer, wherein: a hydrogen concentration of the hydrogen-containing layer decreases from a maximum hydrogen concentration to the depth of layer; and the depth of layer is at greater than 5 μm; and wherein P 2 O 5 is present at the center of the glass-based article in an amount from greater than or equal to 4 mol% to less than or equal to 15 mol%.
An emissive display device comprising: a permanent first pixel area which includes first pixels; a permanent second pixel area which includes the second pixels and is adjacent the first pixel area, so as to define a boundary there between; a first boundary area which is included in a region of the second pixel area that is located adjacent the boundary between the first pixel area and the second pixel area; and a luminance controller configured to modify input image data corresponding to the first boundary area to be converted into first boundary data; characterized by the display device being configured to be driven in one of a first mode and a second mode, wherein in the first mode the first pixels and the second pixels are driven corresponding to an input data signal and in the second mode the first pixels are set to be in a non-emissive state, and the second pixels are driven corresponding to an input data signal, and wherein in the second mode, the luminance controller is configured to control the luminance of the first boundary area is modified in the second mode by modulating the original data intended for the first boundary area by means of a function that gradually increases with distance from the boundary between the first pixel area and the second pixel area. a permanent first pixel area which includes first pixels; a permanent second pixel area which includes the second pixels and is adjacent the first pixel area, so as to define a boundary there between; a first boundary area which is included in a region of the second pixel area that is located adjacent the boundary between the first pixel area and the second pixel area; and a luminance controller configured to modify input image data corresponding to the first boundary area to be converted into first boundary data; characterized by the display device being configured to be driven in one of a first mode and a second mode, wherein in the first mode the first pixels and the second pixels are driven corresponding to an input data signal and in the second mode the first pixels are set to be in a non-emissive state, and the second pixels are driven corresponding to an input data signal, and wherein in the second mode, the luminance controller is configured to control the luminance of the first boundary area is modified in the second mode by modulating the original data intended for the first boundary area by means of a function that gradually increases with distance from the boundary between the first pixel area and the second pixel area.