mhurhangee/patent-ind-claim-en huggingface dataset:
A process for the production of an oil in water emulsion suitable for use the prevention and/or treatment of disease comprising the step of: a. introducing an oil phase into a mixing device by applying a positive pressure in the oil phase containing tank, wherein the oil phase comprises squalene; b. introducing an aqueous phase into said mixing device by applying a positive pressure in the aqueous phase containing tank; c. mixing the oil and aqueous phases to form an oil in water emulsion. d. subjecting the oil in water emulsion of step c) to high pressure homogenization to form a submicron oil in water emulsion; e. pre-filtering the oil in water emulsion; and f. filtering an oil in water emulsion filtered according to step e) through a sterile grade filter. wherein the oil and/or aqueous phases are introduced into the mixing device by adjusting the pressure to about 2 to 6 bars. a. introducing an oil phase into a mixing device by applying a positive pressure in the oil phase containing tank, wherein the oil phase comprises squalene; b. introducing an aqueous phase into said mixing device by applying a positive pressure in the aqueous phase containing tank; c. mixing the oil and aqueous phases to form an oil in water emulsion. d. subjecting the oil in water emulsion of step c) to high pressure homogenization to form a submicron oil in water emulsion; e. pre-filtering the oil in water emulsion; and f. filtering an oil in water emulsion filtered according to step e) through a sterile grade filter. wherein the oil and/or aqueous phases are introduced into the mixing device by adjusting the pressure to about 2 to 6 bars.
A flex beam for coupling a rotor blade to a rotor hub , the flex beam comprising: a first composite laminate forming a first skin of the flex beam; a second composite laminate located opposite the first composite laminate and forming a second skin of the flex beam; a third composite laminate located between the first composite laminate and the second composite laminate; first resilient core members extending between the first composite laminate and the third composite laminate; and second resilient core members extending between the second composite laminate and the third composite laminate; and wherein respective ones of the first resilient core members include: a first segment having a first height and a first thickness ; a second segment extending from the first segment in a first direction defined by a first radius of curvature between the first and second segments, the second segment having a second height and a second thickness ; and a third segment extending from the second segment in a second direction defined by a second radius of curvature between the second and third segments, the third segment having a third height and a third thickness . a first composite laminate forming a first skin of the flex beam; a second composite laminate located opposite the first composite laminate and forming a second skin of the flex beam; a third composite laminate located between the first composite laminate and the second composite laminate; first resilient core members extending between the first composite laminate and the third composite laminate; and second resilient core members extending between the second composite laminate and the third composite laminate; and wherein respective ones of the first resilient core members include: a first segment having a first height and a first thickness ; a second segment extending from the first segment in a first direction defined by a first radius of curvature between the first and second segments, the second segment having a second height and a second thickness ; and a third segment extending from the second segment in a second direction defined by a second radius of curvature between the second and third segments, the third segment having a third height and a third thickness . a first segment having a first height and a first thickness ; a second segment extending from the first segment in a first direction defined by a first radius of curvature between the first and second segments, the second segment having a second height and a second thickness ; and a third segment extending from the second segment in a second direction defined by a second radius of curvature between the second and third segments, the third segment having a third height and a third thickness .
Device for closing an inspection opening into a panel-like structure element of a dry building structure, in particular for a wall or a ceiling, in which the stated device comprises a frame framing the inspection opening and a closure cover for closing the inspection opening, wherein the frame is of panel-like form, wherein a material thereof corresponds to a material of a panel-like structure element of a dry-building structure, and wherein the closure cover is adapted to the frame already in the factory characterized in that the closure cover is pivotable by pivot pegs on the frame and/or on the closure cover , which pivot pegs are insertable into guides, in particular guide tracks, of the respective other element .
A method for preparing a polymer nanocomposite masterbatch, comprising the steps: a) dispersing a nano filler material having a geometric size of primary particle from 0.01 to 100 nm with respect to at least one dimension thereof in an organic solvent; b) contacting the nano filler material in the organic solvent with a surface functionalizing agent to form a surface functionalized nano filler material suspension, wherein the surface functionalizing agent is selected from the group consisting of quaternary ammonium salts, silanes, titanates, organic acid, grafted oligomer or grafted polymer; c) mixing the surface functionalized nano filler material suspension with a polymer solution to form a dissolved polymer nanocomposite masterbatch suspension; d) precipitating the dissolved polymer nanocomposite masterbatch suspension to produce a precipitation of polymer nanocomposite masterbatch; e) optionally, filtering and drying the precipitation of polymer nanocomposite masterbatch to form a polymer nanocomposite masterbatch. a) dispersing a nano filler material having a geometric size of primary particle from 0.01 to 100 nm with respect to at least one dimension thereof in an organic solvent; b) contacting the nano filler material in the organic solvent with a surface functionalizing agent to form a surface functionalized nano filler material suspension, wherein the surface functionalizing agent is selected from the group consisting of quaternary ammonium salts, silanes, titanates, organic acid, grafted oligomer or grafted polymer; c) mixing the surface functionalized nano filler material suspension with a polymer solution to form a dissolved polymer nanocomposite masterbatch suspension; d) precipitating the dissolved polymer nanocomposite masterbatch suspension to produce a precipitation of polymer nanocomposite masterbatch; e) optionally, filtering and drying the precipitation of polymer nanocomposite masterbatch to form a polymer nanocomposite masterbatch.
A backlight unit comprising: a bottom chassis including a substantially flat bottom ; a bracket accommodated in the bottom chassis and positioned at an edge of the bottom chassis ; a light source unit including a substrate fixedly positioned on the bracket and a light source mounted on the substrate , the light source protruding toward the bottom of the bottom chassis ; and a light guide plate disposed in the bottom chassis and transmitting light from the light source characterized in that the bracket includes a groove at a surface facing toward the bottom of the bottom chassis , and the bracket is positioned such that a guide protruding from the bottom of the bottom chassis is inserted into the groove . a bottom chassis including a substantially flat bottom ; a bracket accommodated in the bottom chassis and positioned at an edge of the bottom chassis ; a light source unit including a substrate fixedly positioned on the bracket and a light source mounted on the substrate , the light source protruding toward the bottom of the bottom chassis ; and a light guide plate disposed in the bottom chassis and transmitting light from the light source characterized in that the bracket includes a groove at a surface facing toward the bottom of the bottom chassis , and the bracket is positioned such that a guide protruding from the bottom of the bottom chassis is inserted into the groove .
A battery device for an electronic cigarette, an atomizing circuit being provided in the electronic cigarette, the battery device comprising a touch key , a mechanical key , a battery assembly and a control board , wherein the atomizing circuit , the touch key , the mechanical key and the battery assembly are all electrically connected with the control board , the touch key is configured to generate a sensing signal and feed the sensing signal to the control board , the mechanical key is configured to generate a load working signal and feed the load working signal to the control board , the control board is configured to control the conduction between the atomizing circuit and the battery assembly to cause the battery assembly to supply power to the atomizing circuit when the control board receives both the sensing signal and the load working signal; characterized in that the condition that the control board receives both the sensing signal and the load working signal means that: the control board receives the sensing signal and the load working signal at the same time; or the control board receives the sensing signal and then receives the load working signal before the sensing signal is disappeared; or the control board receives the load working signal and then receives the sensing signal before the load working signal is disappeared; or after the control board receives the sensing signal, it starts timing, and the control board receives the load working signal within a preset time; or after the control board receives the load working signal, it starts timing, and the control board receives the sensing signal within a preset time. the control board receives the sensing signal and the load working signal at the same time; or the control board receives the sensing signal and then receives the load working signal before the sensing signal is disappeared; or the control board receives the load working signal and then receives the sensing signal before the load working signal is disappeared; or after the control board receives the sensing signal, it starts timing, and the control board receives the load working signal within a preset time; or
A motor vehicle steering wheel, comprising a device for removably mounting an airbag module on the steering wheel , - the mounting device comprising at least two hooks connected to one of the airbag module or the steering wheel , the hooks cooperating with insertion means located on the other of the airbag module or the steering wheel , and a resilient ring for forming means for holding the hooks on the other of the airbag module or the steering wheel in zones of interaction with the hooks , the resilient ring being held in position by locking means on the other of the airbag module or the steering wheel , the resilient ring comprising: - first portions extending in the interaction zones to form the means for holding the hooks , - second portions located between the first portions of the resilient ring , - the device for removable mounting further comprising guide elements , - the guide elements forming two separate dismantling paths for guiding a tool for dismantling the device for removably mounting the airbag module ,characterized in that - the steering wheel comprises a single dismantling opening for inserting the dismantling tool along the two dismantling paths, - the opening and the guide elements being arranged such that the movement of the dismantling tool through the opening along each of the two dismantling paths and on the second portions causes the movement of the first portions of the resilient ring outside the zones of interaction with the hooks in order to free the hooks from the other of the airbag module or the steering wheel during the movement of the dismantling tool. - the mounting device comprising at least two hooks connected to one of the airbag module or the steering wheel , the hooks cooperating with insertion means located on the other of the airbag module or the steering wheel , and a resilient ring for forming means for holding the hooks on the other of the airbag module or the steering wheel in zones of interaction with the hooks , - first portions extending in the interaction zones to form the means for holding the hooks , - second portions located between the first portions of the resilient ring , - the device for removable mounting further comprising guide elements , - the guide elements forming two separate dismantling paths for guiding a tool for dismantling the device for removably mounting the airbag module ,characterized in that - the steering wheel comprises a single dismantling opening for inserting the dismantling tool along the two dismantling paths, - the opening and the guide elements being arranged such that the movement of the dismantling tool through the opening along each of the two dismantling paths and on the second portions causes the movement of the first portions of the resilient ring outside the zones of interaction with the hooks in order to free the hooks from the other of the airbag module or the steering wheel during the movement of the dismantling tool.
An electronic package , comprising: a package substrate ; a first die over the package substrate; a second die over the package substrate; and an optical waveguide on the package substrate, wherein a first end of the optical waveguide is below the first die and a second end of the optical waveguide is below the second die, and wherein the optical waveguide communicatively couples the first die to the second die; characterized in that the electronic package further comprises a first reflective structure at the first end of the optical waveguide and a second reflective structure at the second end of the optical waveguide; and in that the first reflective structure and the second reflective structure have trapezoidal cross-sections with a triangular notch in a bottom surface. a package substrate ; a first die over the package substrate; a second die over the package substrate; and an optical waveguide on the package substrate, wherein a first end of the optical waveguide is below the first die and a second end of the optical waveguide is below the second die, and wherein the optical waveguide communicatively couples the first die to the second die; characterized in that the electronic package further comprises a first reflective structure at the first end of the optical waveguide and a second reflective structure at the second end of the optical waveguide; and in that the first reflective structure and the second reflective structure have trapezoidal cross-sections with a triangular notch in a bottom surface.
A method for analyzing components of whole blood, the method comprising: obtaining a whole blood sample; obtaining a first light absorbance profile (W) of the whole blood sample; hemolyzing the whole blood sample to generate a hemolyzed sample of blood; obtaining a second light absorbance profile (L) of the hemolyzed sample of blood; and determining a level of hemolysis in the whole blood sample by comparing the first light absorbance profile (W) and the second light absorbance profile (L); characterized by identifying, via a computer processor, a first contribution of constituents of the whole blood sample to the first light absorbance profile (W); identifying, via a computer processor, a second contribution of constituents of the hemolyzed blood sample to the second light absorbance profile (L); and determining, via a computer processor, the level of hemolysis based on the difference between 1) the first contribution of constituents of the whole blood sample to the first light absorbance profile (W), and 2) the second contribution of constituents of the hemolyzed blood sample to the second light absorbance profile (L); wherein the constituents are components of the blood sample including hemoglobin and its variants, and wherein the contribution of constituents refers to a relative measure, said relative measure being the absorbance measurement of one component of the blood sample to the overall absorbance spectrum. obtaining a whole blood sample; obtaining a first light absorbance profile (W) of the whole blood sample; hemolyzing the whole blood sample to generate a hemolyzed sample of blood; obtaining a second light absorbance profile (L) of the hemolyzed sample of blood; and determining a level of hemolysis in the whole blood sample by comparing the first light absorbance profile (W) and the second light absorbance profile (L); characterized by identifying, via a computer processor, a first contribution of constituents of the whole blood sample to the first light absorbance profile (W); identifying, via a computer processor, a second contribution of constituents of the hemolyzed blood sample to the second light absorbance profile (L); and determining, via a computer processor, the level of hemolysis based on the difference between 1) the first contribution of constituents of the whole blood sample to the first light absorbance profile (W), and 2) the second contribution of constituents of the hemolyzed blood sample to the second light absorbance profile (L); wherein the constituents are components of the blood sample including hemoglobin and its variants, and wherein the contribution of constituents refers to a relative measure, said relative measure being the absorbance measurement of one component of the blood sample to the overall absorbance spectrum.
A fusion peptide with inhibitory activity against IL-2, wherein the fusion peptide has an amino acid sequence represented by Sequence ID No. 4.
A method of separation comprising: providing a first metal complex and a second metal complex in a liquid, wherein the first metal complex and the second metal complex comprise a first ligand functionalized with an electron acceptor group; and exposing the liquid to light comprising one or more wavelengths sufficient to facilitate (i) the formation of an excited state on the first metal complex, (ii) an excited state electron transfer to the electron acceptor group of the first metal complex, and (iii) an irreversible chemical reaction of the electron acceptor group of the first metal complex, wherein the irreversible chemical reaction converts the first ligand of the first metal complex to a second ligand to form a modified first metal complex. providing a first metal complex and a second metal complex in a liquid, wherein the first metal complex and the second metal complex comprise a first ligand functionalized with an electron acceptor group; and exposing the liquid to light comprising one or more wavelengths sufficient to facilitate (i) the formation of an excited state on the first metal complex, (ii) an excited state electron transfer to the electron acceptor group of the first metal complex, and (iii) an irreversible chemical reaction of the electron acceptor group of the first metal complex, wherein the irreversible chemical reaction converts the first ligand of the first metal complex to a second ligand to form a modified first metal complex.
A press wheel assembly for mounting to a seed planter having a speed monitoring device and a set release mechanism therein, comprising: a press wheel mounted thereto near said said release mechanism, configured for rolling over sets released from said set release mechanism, and checking a set roll in each of said sets ; instrumentation associated with said press wheel configured for detecting a passing thereof over a planted set planted by said seed planter; a computing device connected to said instrumentation and connectable to said speed monitoring device configured for determining a spacing between said planted sets , wherein said press wheel assembly further comprises a tire , said instrumentation comprises a sensor configured for detecting a change in air pressure inside said tire , said instrumentation comprises a sensor configured for detecting a change in shape of a surface of said tire , and said instrumentation comprises an array of pressure sensors mounted there-around. a press wheel mounted thereto near said said release mechanism, configured for rolling over sets released from said set release mechanism, and checking a set roll in each of said sets ; instrumentation associated with said press wheel configured for detecting a passing thereof over a planted set planted by said seed planter; a computing device connected to said instrumentation and connectable to said speed monitoring device configured for determining a spacing between said planted sets , wherein said press wheel assembly further comprises a tire , said instrumentation comprises a sensor configured for detecting a change in air pressure inside said tire , said instrumentation comprises a sensor configured for detecting a change in shape of a surface of said tire , and said instrumentation comprises an array of pressure sensors mounted there-around.
A method for producing a hermetic insecticidal crop storage textile bag , the bag comprising an inner side facing an inner volume and an opposite outer side facing the environment, wherein the method comprises providing the bag with a textile layer forming the inner side of the bag, wherein the textile is woven, knitted, or non-woven, and providing the bag with a polymer multilayer film only on the outer side; wherein the multilayer film comprises an insecticidal polymer layer in which an insecticide is melt-incorporated for preventing intrusion of insects into the bag by the insecticidal polymer layer ; characterised in that the method comprises including at least one oxygen barrier polymer layer in the multilayer film for providing an Oxygen Transmission Rate, OTR, through the multilayer film sufficiently low for preventing breeding or killing potential insects inside the bag when the bag is in closed condition.
Diverter assembly for pneumatic transport of a bulk material substance using a fluid flow, comprising a diverter main body provided with an input pipe connection having an input flow direction , and at least one output pipe connection having an output flow direction perpendicular to the input flow direction , wherein the diverter main body further comprises a collision wall part arranged remote and opposite from the input pipe connection and having a collision surface arranged perpendicular to the input flow direction , and a narrowing flow part shaped and arranged to provide a flow path from the collision wall part to the at least one output pipe connection , wherein the diverter main body further comprises a curved wall part extending between the collision wall part and the input pipe connection , wherein the curved wall part , narrowing flow part and collision wall part form a fluid tight enclosure between the input pipe connection and the at least one output pipe connection , characterized in that , the narrowing flow part is shaped as a funnel shaped body and arranged to provide a smooth convergent flow path.