mhurhangee/patent-ind-claim-en huggingface dataset:
A laminate structure comprising an alternating stack of layers of different types of polymer blends AC and BD having the sequence -AC-[BD-AC-] n with n from 4 to 36, a layer thickness of layers AC and layers BD of less than 3 μm, wherein A and B are thermoplastic polymers, the thermoplastic polymer B has functional barrier properties against transmission of oxygen, nitrogen, carbon dioxide, organic vapors and moisture, the polymers A and B are each blended with a thermoplastic elastomer C and D forming the polymer blends AC and BD, in which the amount of the thermoplastic elastomers C and D in the blends is each from 3 to 45 wt.-%, and the thermoplastic polymer B and elastomer D are essentially incompatible forming separate phases, and the structure has a water vapor transmission rate of less than 5 g H 2 O per m 2 in 24 hours at 23 °C and 85 Vol.-% relative humidity (DIN 53122) and an oxygen transmission rate of less than 10 cm 3 O 2 per m 2 in 24 hours at 23 °C and 50 Vol.-% relative humidity (ASTM D 3985).
A method of producing a polymeric matrix adhesive, said method comprising: a) providing a silane end-capped polymeric mixture; b) adding an aliphatic quencher; c) adding reinforcing extender; and d) adding a thixotropic agent; wherein the silane end-capped polymeric mixture comprises a silane end-capped prepolymer urethane, wherein the silane end-capped prepolymer urethane is produced by combining a silane and a prepolymer urethane, and wherein the prepolymer urethane comprises a slow-cure urethane prepolymer having a functionality (Fn) between about 2.5 and 2.55 , an NCO content between about 15 and 18%, a viscosity between 3000 and 8000 cps (between 3000 and 8000 mPas) at 25°C, and an equivalent weight between 250 and 270; a flexible binder urethane prepolymer having a functionality (Fn) of about 2.00, an NCO content between about 7 and 10%, a viscosity between 1500 and 3500 cps (between 1500 and 3500 mPas) at 25°C, and an equivalent weight between 425 and 550, or a combination of both, wherein the slow-cure urethane prepolymer and the flexible binder urethane prepolymer are polyisocyantate prepolymers based on diphenylmethane diisocyanate (MDI). a) providing a silane end-capped polymeric mixture; b) adding an aliphatic quencher; c) adding reinforcing extender; and d) adding a thixotropic agent;
A chimeric antigen receptor comprising an antigen binding domain; a hinge region; a transmembrane domain; a costimulatory domain; and a cytoplasmic signaling domain, characterized in that the antigen binding domain binds to IL13Rα2, wherein, in the antigen binding domain, the 11th, 64th, 67th, and 107th positions of the amino acid sequence indicated with Sequence No. 1 are substituted with lysine(K), aspartic acid(D), aspartic acid(D) and lysine(K), respectively.
A composition comprising: a polymer base resin; from 10 wt.% to 60 wt.% of a fiber filler comprising a sizing component comprising a sizing agent and a reactive aid comprising a diisocyanate compound which comprises hexamethylene diisocyanate, wherein the sizing component is present as a coating on the fiber filler, and wherein the sizing component is present in an amount of from 0.1 wt.% to 2 wt.% based on the weight of the fiber filler, and the reactive aid comprising the diisocyanate compound is present in an amount of from 1 wt.% to 30 wt.% based on the weight of the sizing component; and an additive. a polymer base resin; from 10 wt.% to 60 wt.% of a fiber filler comprising a sizing component comprising a sizing agent and a reactive aid comprising a diisocyanate compound which comprises hexamethylene diisocyanate, wherein the sizing component is present as a coating on the fiber filler, and wherein the sizing component is present in an amount of from 0.1 wt.% to 2 wt.% based on the weight of the fiber filler, and the reactive aid comprising the diisocyanate compound is present in an amount of from 1 wt.% to 30 wt.% based on the weight of the sizing component; and an additive.
A method for determining particle parameters such as particle concentration, particle size, size distribution and particle count per size class, refractive index, and non-sphericity of microscale and submicroscale particles in flow measuring cells with hydrodynamic focusing by multiparametric acquisition of absorbance and/or scattered light signals, wherein the scattered light and absorbance signals of each individual dispersed particle that are generated by means of a laser with variable beam intensity and an aspherical beam cross-section (focus) are counted and simultaneously measured at a high detection rate (frequency) in at least two solid angle ranges, and compared in analog or digital manner using simulation calculations of the scattered light distribution by analytical or numerical methods for the different solid angle ranges in order to determine therefrom the individual particle parameters over a dynamic particle size range of four orders of magnitude without coincidence, even for high particle concentrations (e.g. 10 9 particles/ml) of the measurement sample, wherein use is made of different aperture angles for forward scattering or a plurality of detection directions for the scattered light measurement and of any desired combinations of these, wherein the particle size and refractive index are determined from the respective scattering intensities of the simultaneous measurements; wherein, in order to determine sphericity or non-sphericity, the entire temporal intensity profile of the scattered light pulse during passage of the particle through the measuring volume is measured and analyzed or stored in real time.
A method for producing a laminate including a step of laminating a resin impregnated fiber reinforced composition layer on a metal member , wherein the method includes a step of forming a resin coating on the metal member ; and a step of laminating a resin impregnated fiber reinforced composition layer containing a resin impregnated fiber reinforced composition via the above resin coating by a laser fusion method, wherein the resin impregnated fiber reinforced composition contains relative to the sum of component I and component C taken as 100% by mass, 20 to 80% by mass of a polymer having a melting point and/or a glass transition temperature of 50 to 300°C as component I, and 20 to 80% by mass of a reinforcing fiber as component C, and wherein the above resin coating includes a layer containing a dye (II) on a surface to be laser-fused with the resin impregnated fiber reinforced composition layer , wherein the dye (II) absorbs light having a wavelength of 300 to 3000 nm, and a layer containing no dye (II) as a surface in contact with the metal member . a step of forming a resin coating on the metal member ; and a step of laminating a resin impregnated fiber reinforced composition layer containing a resin impregnated fiber reinforced composition via the above resin coating by a laser fusion method, wherein the resin impregnated fiber reinforced composition contains relative to the sum of component I and component C taken as 100% by mass, 20 to 80% by mass of a polymer having a melting point and/or a glass transition temperature of 50 to 300°C as component I, and 20 to 80% by mass of a reinforcing fiber as component C, and wherein the above resin coating includes a layer containing a dye (II) on a surface to be laser-fused with the resin impregnated fiber reinforced composition layer , wherein the dye (II) absorbs light having a wavelength of 300 to 3000 nm, and a layer containing no dye (II) as a surface in contact with the metal member .
A fiber-reinforced composite material comprising a plurality of reinforcing-fiber-containing layers and a resin layer in each interlaminar region between adjacent reinforcing-fiber-containing layers, said layers obtained by curing a laminate of a plurality of prepregs, characterized in that said resin layer consists of a cured product of a resin composition comprising (A) a compound having in its molecule a benzoxazine ring represented by formula : wherein R 1 stands for a chain alkyl group having 1 to 12 carbon atoms, a cyclic alkyl group having 3 to 8 carbon atoms, a phenyl group, or a phenyl group substituted with a chain alkyl group having 1 to 12 carbon atoms or a halogen, and a hydrogen atom is bonded to at least one of the carbon atoms of the aromatic ring at ortho- or para-position with respect to the carbon atom to which the oxygen atom is bonded, (B) epoxy resin, (C) a curing agent, (D) a toughness improver, and (E) polyamide 12 powder, wherein the content of component (A) is 65 to 78 mass% and the content of component (B) is 22 to 35 mass%, with the total of components (A) and (B) being 100 mass%, wherein the content of component (C) is 7 to 15 parts by mass with respect to 100 parts by mass of components (A) and (B) together, wherein said fiber-reinforced composite material has a Mode I interlaminar fracture toughness G IC of not lower than 300 J/m 2 , and a Mode II interlaminar fracture toughness G IIC of not lower than 1000 J/m 2 , and wherein the interlaminar fracture toughnesses G IC and G IIC are measured according to JIS K7086 using a rectangular specimen of 250 mm in the 0° direction and 25 mm in width obtained following the laminating of the prepregs in 26 piles in the direction of 0 degree, and curing laminated prepregs in an autoclave under heating stepwise from room temperature to 180 °C, and at 180 °C for 2 hours.
A security system for servicing memory access requests from a client device, the security system comprising: a. a protected device comprising a processor , memory and a lock unit connected to the memory , the lock unit comprising a network interface isolated from the processor ; and b. an authentication server , wherein the lock unit is configured to (i) detect a memory access request from the client device, (ii) receive authentication data from the client device and communicate the received authentication data to the authentication server via the network interface , and (iii) only upon receipt via the network interface of an authentication confirmation signal from the authentication server , cause the lock unit to allow the memory access request to be serviced. a. a protected device comprising a processor , memory and a lock unit connected to the memory , the lock unit comprising a network interface isolated from the processor ; and b. an authentication server ,
A method for operating a cleaning device , wherein a user selects a cleaning activity to be performed by means of the cleaning device via a communications interface of the cleaning device or a communications interface of an external terminal having a communications link with the cleaning device , wherein the user implements at least one device setting of the cleaning device and/or at least one device application of the cleaning device for performing the cleaning activity , and performs the cleaning activity with the implemented device setting and/or device application , characterized in that an instruction for a plurality of steps to be implemented by the user in chronological sequence, which contain a device setting and/or device application , is transmitted to the user via the communications interface as a function of the selected cleaning activity , and wherein a control and evaluation unit of the cleaning device or of the external terminal monitors the actual implementation of the device setting and/or device application corresponding to the step to be currently implemented, and transmits a note to the user in the event that the device setting and/or device application actually implemented by the user deviates from a predefined reference for the device setting and/or device application to be implemented.
Connection element, in particular a thermal material bonding dome, for fastening to the surface of a component by friction welding, comprising a main part and a functional part , wherein the main part has an upper side and a lower side which is opposite the upper side and has an annular bead , wherein the main part has an opening connecting the upper side and the lower side, and wherein the functional part has a shank and, at a first end of the shank , a head of which the diameter or extension transversely to a longitudinal axis of the shank is greater than a diameter of the opening .
Filter device for filtering fluid, in particular in the form of an aqueous urea solution, having a filter element arranged in a filter housing as well as a compensating element, provided for compensating pressure or volume fluctuations in the fluid, in the form of an elastically yielding hollow body which has a greater spatial extent in one direction than transverse thereto, which is held in the filter housing by means of a holding device and which separates the fluid from a compressible medium with its partition wall, wherein a supporting body is inserted inside the hollow body , said supporting body being at least partially spaced from the hollow body in a non-compensating position and serving as a supporting abutment for the hollow body in at least one compensating position, characterised in that the supporting body is rigid and provided at least partially with a cavity on the inside, which is connected via a media-conducting connecting device to at least one space between the hollow body and the supporting body in which space the compressible medium is held.
A method for determining a predictive duty cycle that is able to determine the magnitude and pulse width of an H-bridge pulse width modulation that is used to drive machine motor, comprising: determining one or more machine parameters; inputting the machine parameters into a predicted duty cycle module; determining the optimum polarity, selected from a negative polarity or a positive polarity, of the pulse width modulation for a predicted duty cycle based on a pulse width modulation generation algorithm; and determining, during a transition period in which machine emf voltage has a different polarity from a terminal voltage, whether the pulse width modulation is unipolar or bipolar for a predicted duty cycle based on the pulse width modulation generation algorithm. determining one or more machine parameters; inputting the machine parameters into a predicted duty cycle module; determining the optimum polarity, selected from a negative polarity or a positive polarity, of the pulse width modulation for a predicted duty cycle based on a pulse width modulation generation algorithm; and determining, during a transition period in which machine emf voltage has a different polarity from a terminal voltage, whether the pulse width modulation is unipolar or bipolar for a predicted duty cycle based on the pulse width modulation generation algorithm.
A disposable cartridge for a portable assay diagnostic system , comprising: a filtration chamber in fluid communication with a first port disposed through a wall in the disposable cartridge ; a collection chamber adjacent the filtration chamber and in fluid communication with a second port disposed through a wall in the disposable cartridge ; and a filtration column assembly comprising a column matrix material ; characterized in that the filtration column comprises a tubular column defining a column cavity to receive the column matrix material , and a cap directing a filtered fluid sample from the tubular column into the collection chamber , wherein the filtration and collection chambers are separated by a sidewall , wherein the sidewall has a height dimension which is less than the height dimension of the tubular column , and wherein the tubular column is configured to sealably engage the filtration chamber to allow fluid to flow up through the tubular column of the filtration column assembly above the height dimension of the sidewall; wherein the cap is configured to restrict the volume of the filtered fluid sample collecting above the column matrix material . a filtration chamber in fluid communication with a first port disposed through a wall in the disposable cartridge ; a collection chamber adjacent the filtration chamber and in fluid communication with a second port disposed through a wall in the disposable cartridge ; and a filtration column assembly comprising a column matrix material ; characterized in that the filtration column comprises a tubular column defining a column cavity to receive the column matrix material , and a cap directing a filtered fluid sample from the tubular column into the collection chamber , wherein the filtration and collection chambers are separated by a sidewall , wherein the sidewall has a height dimension which is less than the height dimension of the tubular column , and wherein the tubular column is configured to sealably engage the filtration chamber to allow fluid to flow up through the tubular column of the filtration column assembly above the height dimension of the sidewall; wherein the cap is configured to restrict the volume of the filtered fluid sample collecting above the column matrix material .
Method for authenticating or identifying an individual, characterised in that it comprises the implementation by data processing means of a terminal of the following steps: (a) Obtaining a visible image, an infrared image, and a depth image on each of which a biometric trait of said individual appears; (b) Selecting at least one of said visible, infrared and depth images as a function of the ambient lighting conditions; (c) Detecting said biometric trait of the individual in each selected image; (d) Merging the detected biometric trait or traits; (e) Authenticating or identifying said individual on the basis of the result of the merging of the detected biometric trait or traits. (a) Obtaining a visible image, an infrared image, and a depth image on each of which a biometric trait of said individual appears; (b) Selecting at least one of said visible, infrared and depth images as a function of the ambient lighting conditions; (c) Detecting said biometric trait of the individual in each selected image; (d) Merging the detected biometric trait or traits; (e) Authenticating or identifying said individual on the basis of the result of the merging of the detected biometric trait or traits.
Spring loaded brake with numerous coil springs for applying a force onto a braking element in order to produce a braking effect, and with numerous spring seats for retaining each one of the numerous coil springs , wherein the braking element encompasses a shaft on which a rotating braking element is arranged and to which it is moveably in an axial direction and non-rotatably attached, wherein, in order to generate the braking effect, the braking element is pressed against the rotating braking element , wherein each of the spring seats comprise a guide region extending along the respective coil spring , and a further region extending along the respective coil spring , characterized in that the further region is arranged between the guide region and the braking element and comprises a larger cross-section than the guide region .
Securing arrangement in a motor vehicle, comprising a connecting element, for securing a heavy duty component to a hollow profile in a motor vehicle, a hollow profile and a heavy duty component, wherein the connecting element has a profile extension with a rectangular cross section, comprising a top face and a bottom face of the cross section of the profile extension , wherein the connecting element furthermore has a flange face which comprises a cross section of the flange face protruding beyond the cross section of the profile extension , wherein the profile extension and/or the flange face has a bore for bolting to the heavy duty component, wherein the bore for bolting to the heavy duty component is formed in the profile extension , wherein the bore stands perpendicular to the top face and the bottom face of the profile extension , wherein the bore is connected to outer faces of the profile extension in particular by reinforcing webs or wherein the bore stands perpendicular to the flange face , wherein the profile extension is introduced into the hollow profile through a side face of the hollow profile , so that in the inside of the hollow profile , the top face and bottom face of the profile extension are oriented parallel to a top face and bottom face of the hollow profile and are supported vertically, indirectly, by the top face and bottom face of the hollow profile , wherein the flange face of the connecting element lies on the outside against the side face of the hollow profile , wherein the heavy duty component is bolted to the bore of the profile extension or the flange face , characterized in that the hollow profile is a multi-chamber hollow profile, i.e. has inner connecting webs , wherein the connecting webs form vertical supports of the top face and bottom face of the hollow profile , wherein the profile extension is guided through openings in the inner connecting webs , wherein the profile extension additionally lies on the edges of these openings .
An array substrate, comprising: a base substrate ; a gate electrode and a gate line located on the base substrate ; an active layer located on a film layer where the gate electrode and the gate line are located; a drain electrode , a source electrode and a data line located on the active layer ; a pixel electrode located on a film layer where the drain electrode , the source electrode and the data line are located and electrically connected to the drain electrode through a first via hole ; and a common electrode layer located on a film layer where the pixel electrode is located and electrically insulated from the pixel electrode ; the array substrate further comprises: a plurality of conducting lines , located on the film layer where the drain electrode , the source electrode and the data line are located, and electrically insulated from the drain electrode , the source electrode , the data line and the pixel electrode ; and, disposed on a layer different from the common electrode layer ; characterized in that : the common electrode layer includes a plurality of self-capacitive electrodes disposed on the same layer and mutually insulated and each of the conducting lines being electrically connected to a corresponding self-capacitive electrode through a second via hole .
A headlamp employing semiconductor light sources to create desired beam patterns, comprising: a projector assembly comprising a light engine including a plurality of semiconductor light sources and a lens , the plurality of semiconductor light sources illuminated to project light to create a desired beam pattern in a forward direction along an optical axis of the headlamp and including at least one semiconductor light source which is selectively illuminated to provide a steerable light beam pattern; at least two fill light elements including semiconductor light sources, the fill light elements being illuminated to provide light for the desired beam patterns; the headlamp being characterised in that it further comprises at least one corner light element , the at least one corner light element being illuminated independently from the plurality of semiconductor light sources to produce a corner light beam pattern at an angle that exceeds figteen degrees with respect to the optical axis of the headlamp . a projector assembly comprising a light engine including a plurality of semiconductor light sources and a lens , the plurality of semiconductor light sources illuminated to project light to create a desired beam pattern in a forward direction along an optical axis of the headlamp and including at least one semiconductor light source which is selectively illuminated to provide a steerable light beam pattern; at least two fill light elements including semiconductor light sources, the fill light elements being illuminated to provide light for the desired beam patterns; the headlamp being characterised in that it further comprises at least one corner light element , the at least one corner light element being illuminated independently from the plurality of semiconductor light sources to produce a corner light beam pattern at an angle that exceeds figteen degrees with respect to the optical axis of the headlamp .