mhurhangee/patent-ind-claim-en huggingface dataset:
A display apparatus , comprising: a substrate on which wiring electrodes are formed; a plurality of semiconductor light emitting diodes electrically connected to the wiring electrodes; a wavelength conversion layer (WL) provided with a plurality of phosphor layers that convert a wavelength of light and a plurality of partition wall portions formed between the plurality of phosphor layers , and disposed to cover the plurality of semiconductor light emitting diodes ; a color filter (CF) disposed to cover the wavelength conversion layer (WL); and an adhesive layer (BL) disposed between the color filter (CF) and the wavelength conversion layer (WL), wherein at least one of the plurality of partition wall portions comprises thin metal layers and a light transmitting material disposed in a space between the thin metal layers , , and the adhesive layer (BL) is formed to fill the space between the thin metal layers in which the light transmitting material is not disposed; wherein the light transmitting material is formed at a height lower than that of the thin metal layers ; ; and wherein a reinforcing portion protruded toward the color filter (CF) is formed on an upper surface of the light transmitting material to reinforce a coupling force between the color filter (CF) and the wavelength conversion layer (WL). a substrate on which wiring electrodes are formed; a plurality of semiconductor light emitting diodes electrically connected to the wiring electrodes; a wavelength conversion layer (WL) provided with a plurality of phosphor layers that convert a wavelength of light and a plurality of partition wall portions formed between the plurality of phosphor layers , and disposed to cover the plurality of semiconductor light emitting diodes ; a color filter (CF) disposed to cover the wavelength conversion layer (WL); and an adhesive layer (BL) disposed between the color filter (CF) and the wavelength conversion layer (WL), wherein at least one of the plurality of partition wall portions comprises thin metal layers and a light transmitting material disposed in a space between the thin metal layers , , and the adhesive layer (BL) is formed to fill the space between the thin metal layers in which the light transmitting material is not disposed; wherein the light transmitting material is formed at a height lower than that of the thin metal layers ; ; and wherein a reinforcing portion protruded toward the color filter (CF) is formed on an upper surface of the light transmitting material to reinforce a coupling force between the color filter (CF) and the wavelength conversion layer (WL).
A fermentation process for producing a desired recombinant polypeptide and purifying the desired recombinant polypeptide from the fermentation medium, wherein the process includes: (i) culturing host cells or microbes under conditions that result in the expression and secretion of the recombinant polypeptide and one or more impurities into the fermentation medium; (ii) periodically obtaining one or more samples of the fermentation medium as the fermentation process proceeds or after different fermentation runs are conducted; (iii) detecting the amount and/or type of glycosylated impurities in the sample(s) using a lectin that binds to said glycosylated impurities, and (iv) based on the amount of detected glycosylated impurities in the sample(s) modifying one or more of the operating parameters or conditions of the fermentation process, wherein the host cells or microbes are yeast or filamentous fungi, wherein the recombinant polypeptide is an antibody or antibody fragment, wherein based on the amount of glycosylated impurities detected one or more of the following parameters or conditions of the fermentation process are altered: temperature, pH, gas constituent, feed constituent, agitation, aeration, antifoam and duration, wherein the process further includes recovering or purifying the recombinant polypeptide from the fermentation medium, and wherein the purification process further comprises pooling different samples or eluates or fractions thereof containing the desired recombinant polypeptide based on the amount and/or type of detected glycosylated impurities relative to the amount of the desired recombinant polypeptide. (i) culturing host cells or microbes under conditions that result in the expression and secretion of the recombinant polypeptide and one or more impurities into the fermentation medium; (ii) periodically obtaining one or more samples of the fermentation medium as the fermentation process proceeds or after different fermentation runs are conducted; (iii) detecting the amount and/or type of glycosylated impurities in the sample(s) using a lectin that binds to said glycosylated impurities, and (iv) based on the amount of detected glycosylated impurities in the sample(s) modifying one or more of the operating parameters or conditions of the fermentation process,
An accessory base for use with a powered accessory, comprising: a flange having a body , a first side and a second side , a first contact and a second contact each having a first end and a second end, said first and second contacts extending into said flange ; a power head spaced from said body at said first side of said flange ; said first contact and said second contact extending through said power head ; said power head having a first dimension (d1) and a second dimension (d2) being greater than the first dimension (d1), said first dimension (d1) being capable of fitting into a power groove of an adjacent component and the second dimension (d2) being capable of retaining said power head in said power groove when said power head is rotated; at least one portion of said flange being movable to disengage said adjacent component; said flange being connectable to a powered accessory for powering by said power groove , characterized in that said flange has an inner flange body and an outer flange body and one of said inner and outer flange body is movable relative to the other, and the accessory base further comprises tabs extending from the outer flange body for engagement of said component. a flange having a body , a first side and a second side , a first contact and a second contact each having a first end and a second end, said first and second contacts extending into said flange ; a power head spaced from said body at said first side of said flange ; said first contact and said second contact extending through said power head ; said power head having a first dimension (d1) and a second dimension (d2) being greater than the first dimension (d1), said first dimension (d1) being capable of fitting into a power groove of an adjacent component and the second dimension (d2) being capable of retaining said power head in said power groove when said power head is rotated; at least one portion of said flange being movable to disengage said adjacent component; said flange being connectable to a powered accessory for powering by said power groove , characterized in that said flange has an inner flange body and an outer flange body and one of said inner and outer flange body is movable relative to the other, and the accessory base further comprises tabs extending from the outer flange body for engagement of said component.
A fiber optic adapter , comprising: a housing comprising a top wall , a bottom wall and sidewalls defining an interior cavity ; a shutter assembly disposed in the interior cavity of the housing , the shutter assembly comprising: a base plate ; one or more shutter doors pivotally coupled to a first side of the base plate through a respective hinge assembly , each shutter door disposed in parallel and spaced apart horizontally; and one or more engagement plates coupled to a second side of the base plate , each engagement plate configured to horizontally face a respective shutter door of the one or more shutter doors , characterized in that the one or more engagement plates are configured to engage with an end surface of a fiber optic connector when the fiber optic connector is connected in the fiber optic adapter . a housing comprising a top wall , a bottom wall and sidewalls defining an interior cavity ; a shutter assembly disposed in the interior cavity of the housing , the shutter assembly comprising: a base plate ; one or more shutter doors pivotally coupled to a first side of the base plate through a respective hinge assembly , each shutter door disposed in parallel and spaced apart horizontally; and one or more engagement plates coupled to a second side of the base plate , each engagement plate configured to horizontally face a respective shutter door of the one or more shutter doors , characterized in that the one or more engagement plates are configured to engage with an end surface of a fiber optic connector when the fiber optic connector is connected in the fiber optic adapter . a base plate ; one or more shutter doors pivotally coupled to a first side of the base plate through a respective hinge assembly , each shutter door disposed in parallel and spaced apart horizontally; and one or more engagement plates coupled to a second side of the base plate , each engagement plate configured to horizontally face a respective shutter door of the one or more shutter doors , characterized in that the one or more engagement plates are configured to engage with an end surface of a fiber optic connector when the fiber optic connector is connected in the fiber optic adapter .
A waterproof and vapor-permeable shoe comprising - an upper assembly , which is composed of at least one upper and a waterproof and vapor-permeable functional layer which is internal thereto, - a tread portion made of waterproof material, which is joined to said upper assembly below it, - at least one vapor permeation layer provided below the foot insertion space (A) defined inside said shoe to accommodate the foot of the user, at least one opening being provided which is lateral with respect to said shoe proximate to the region of connection of said upper assembly to said tread portion , said at least one opening being open toward the perimetric edge of said at least one vapor permeation layer , wherein said shoe has, interposed between said perimetric edge and said at least one opening so as to prevent the access to said at least one vapor permeation layer of water that arrives from said at least one opening , - at least one functional portion of said functional layer , said at least one vapor permeation layer being made of a vapor-permeable material selected among fibrous, porous or microporous materials. - an upper assembly , which is composed of at least one upper and a waterproof and vapor-permeable functional layer which is internal thereto, - a tread portion made of waterproof material, which is joined to said upper assembly below it, - at least one vapor permeation layer provided below the foot insertion space (A) defined inside said shoe to accommodate the foot of the user, - at least one functional portion of said functional layer ,
A process of making a solid part, comprising: introducing a long glass fiber filled polymeric material to a hopper of an injection molding machine , wherein the long glass fibers have a pre-molding length; controlling delivery of the long glass fiber filled polymeric material through an airlock and maintaining a pressure within the plasticizing unit by selectively operating a plurality of valves arranged in the airlock; sealing the plasticizing unit with a seal and the airlock mounted between a barrel of the injection molding machine and the hopper, wherein the seal is located between a screw and a cylinder of the plasticizing unit to prevent the loss of blowing agent at the end of the screw; melting the glass fiber filled polymeric material to form a melt in a plasticizing unit; pressurizing the plasticizing unit of the injection molding machine with a gaseous blowing agent; dissolving the gaseous blowing agent into the melt; injecting the melt into a mold cavity up to 100% of volume; and forming the solid part, wherein optionally a post-molding length of the glass fibers in the solid part is greater than a post-molding length of glass fibers in a similarly dimensioned solid part made without pressurizing a plasticizing unit and without dissolving the gaseous blowing agent into the melt resulting in greater fiber breakage due to harsh mixing conditions. introducing a long glass fiber filled polymeric material to a hopper of an injection molding machine , wherein the long glass fibers have a pre-molding length; controlling delivery of the long glass fiber filled polymeric material through an airlock and maintaining a pressure within the plasticizing unit by selectively operating a plurality of valves arranged in the airlock; sealing the plasticizing unit with a seal and the airlock mounted between a barrel of the injection molding machine and the hopper, wherein the seal is located between a screw and a cylinder of the plasticizing unit to prevent the loss of blowing agent at the end of the screw; melting the glass fiber filled polymeric material to form a melt in a plasticizing unit; pressurizing the plasticizing unit of the injection molding machine with a gaseous blowing agent; dissolving the gaseous blowing agent into the melt; injecting the melt into a mold cavity up to 100% of volume; and forming the solid part, wherein optionally a post-molding length of the glass fibers in the solid part is greater than a post-molding length of glass fibers in a similarly dimensioned solid part made without pressurizing a plasticizing unit and without dissolving the gaseous blowing agent into the melt resulting in greater fiber breakage due to harsh mixing conditions.
A device for measuring a filling level of bulk goods of a storage unit, said device having a sensor unit , configured to identify a filling level of bulk goods of the storage unit, comprising illuminants for generating light and light detection modules for detecting the generated light, a computing unit , configured to determine the filling level of the bulk goods from sensor signals of the storage unit, comprising communication modules which are configured to read sensor signals of the sensor unit and logic modules which are configured to analyse the sensor signals and to determine a filling level of bulk goods of the storage unit and a display unit , configured to output and/or depict the filling level of the bulk goods of the storage unit determined by means of the computing unit , the light detection modules comprising a plurality of light sensitive sensors , and the light sensitive sensors being disposed along an extension axis (E), in particular on a sensor strip , at a distance from each other by a distance (A, A1, A2), characterised in that the distance (A1) between a first light sensitive sensor and a second light sensitive sensor , which are disposed next to each other along the extension axis (E), is smaller than the distance (A2) between the second light sensitive sensor and a third light sensitive sensor , which are also disposed next to each other along the extension axis (E). a sensor unit , configured to identify a filling level of bulk goods of the storage unit, comprising illuminants for generating light and light detection modules for detecting the generated light, a computing unit , configured to determine the filling level of the bulk goods from sensor signals of the storage unit, comprising communication modules which are configured to read sensor signals of the sensor unit and logic modules which are configured to analyse the sensor signals and to determine a filling level of bulk goods of the storage unit and a display unit , configured to output and/or depict the filling level of the bulk goods of the storage unit determined by means of the computing unit , the light detection modules comprising a plurality of light sensitive sensors , and the light sensitive sensors being disposed along an extension axis (E), in particular on a sensor strip , at a distance from each other by a distance (A, A1, A2), characterised in that the distance (A1) between a first light sensitive sensor and a second light sensitive sensor , which are disposed next to each other along the extension axis (E), is smaller than the distance (A2) between the second light sensitive sensor and a third light sensitive sensor , which are also disposed next to each other along the extension axis (E).
A process for producing a sensor, comprising: exposing a sensor electrode and a reference electrode to an aqueous solution, wherein the sensor electrode is a carbon-based electrode; applying an electric potential to the sensor electrode versus the reference electrode, wherein the electric potential is applied to the sensor electrode in a cyclic manner, wherein the cyclic manner comprises: setting the electric potential to a first potential level at which the sensor electrode substantially participates in faradic reactions with electrolytes in the aqueous solution; and setting the electric potential to a second potential level at which the sensor does not substantially participate in faradic reactions with electrolytes in the aqueous solution; and measuring an electrochemical capacitance between the sensor electrode and the reference electrode, wherein the electrochemical capacitance is measured when the electric potential is at the second potential level; and removing the electric potential once a predefined electrochemical capacitance value is reached. exposing a sensor electrode and a reference electrode to an aqueous solution, wherein the sensor electrode is a carbon-based electrode; applying an electric potential to the sensor electrode versus the reference electrode, wherein the electric potential is applied to the sensor electrode in a cyclic manner, wherein the cyclic manner comprises: setting the electric potential to a first potential level at which the sensor electrode substantially participates in faradic reactions with electrolytes in the aqueous solution; and setting the electric potential to a second potential level at which the sensor does not substantially participate in faradic reactions with electrolytes in the aqueous solution; and measuring an electrochemical capacitance between the sensor electrode and the reference electrode, wherein the electrochemical capacitance is measured when the electric potential is at the second potential level; and removing the electric potential once a predefined electrochemical capacitance value is reached. setting the electric potential to a first potential level at which the sensor electrode substantially participates in faradic reactions with electrolytes in the aqueous solution; and setting the electric potential to a second potential level at which the sensor does not substantially participate in faradic reactions with electrolytes in the aqueous solution; and measuring an electrochemical capacitance between the sensor electrode and the reference electrode, wherein the electrochemical capacitance is measured when the electric potential is at the second potential level; and removing the electric potential once a predefined electrochemical capacitance value is reached.
Method for controlling a drive motor in a motor vehicle , comprising the steps: - determining driving situation information, which describes a static friction and/or a traction of at least one wheel of the motor vehicle and/or a speed of the motor vehicle , - determining a minimum rotational speed of the drive motor as a function of the driving situation information, and - regulating or controlling the rotational speed of the drive motor as a function of the minimum rotational speed, in particular in such a way that the rotational speed is always greater than the minimum rotational speed, wherein a minimum wheel rotational speed that is dependent on the driving situation information is determined for the wheel or at least one of the wheels of the motor vehicle , the minimum rotational speed being determined as a function of the minimum wheel rotational speed, characterised in that the minimum wheel rotational speed is determined in such a way that the slip of the wheel or the respective wheel at the speed of the motor vehicle is less than the slip at which maximum traction is achieved between the wheel and the ground. - determining driving situation information, which describes a static friction and/or a traction of at least one wheel of the motor vehicle and/or a speed of the motor vehicle , - determining a minimum rotational speed of the drive motor as a function of the driving situation information, and - regulating or controlling the rotational speed of the drive motor as a function of the minimum rotational speed, in particular in such a way that the rotational speed is always greater than the minimum rotational speed,
A flame retardant resin composition comprising: 1 to 100 parts by weight of (B) an organophosphorus compound (component B) presented by the following formula per 100 parts by weight of (A) a resin component (component A) containing at least 60 wt% of an acrylic resin, (wherein X 1 and X 2 are the same or different, and represent alkyl groups substituted with aromatic groups represented by the following formula :) [Chem. 2] (̵AL)̵(̵Ar) n ··· (wherein AL represents a branched or linear aliphatic hydrocarbon group having 1 to 5 carbon atoms, Ar represents a phenyl group, a naphthyl group or an anthryl group each optionally substituted, n represents an integer of 1 to 3, and Ar can be bonded to any carbon atom in AL.); wherein the acrylic resin in component A is a thermoplastic acrylic resin that complies with JIS K7210 and has a melt flow rate, measured at 230°C under a load of 3.8 kg, of 0.5 to 30 g/10 min. (wherein AL represents a branched or linear aliphatic hydrocarbon group having 1 to 5 carbon atoms, Ar represents a phenyl group, a naphthyl group or an anthryl group each optionally substituted, n represents an integer of 1 to 3, and Ar can be bonded to any carbon atom in AL.); wherein the acrylic resin in component A is a thermoplastic acrylic resin that complies with JIS K7210 and has a melt flow rate, measured at 230°C under a load of 3.8 kg, of 0.5 to 30 g/10 min.