mhurhangee/patent-ind-claim-en huggingface dataset:
A surface protection film for being attached on the viewer's side of a capacitive touch panel of an image display device comprising the capacitive touch panel on the viewer's side of a display panel, which would display an image by transmitting display light coming from the display panel, and would retain a mirror state by reflecting external light in a situation where there is no display light coming from the display panel, the surface protection film comprising a resin film and a pressure-sensitive adhesive layer, wherein the resin film includes a reflective polarizing film, wherein the relative permittivity of the resin film measured at a frequency of 1 MHz is set to a value within the range of 1.0 to 5.0, the reflectance for light having a wavelength of 555 nm is set to a value within the range of 20% to 80%, and the transmittance for light having a wavelength of 555 nm is set to a value within the range of 20% to 80%. Relative permittivity, reflectance and transmittance are determined according to the method described herein.
Use of aluminium alloys which comprise not only aluminium but also one or more of the following metals Mg, Ti, Si, Ba, Sr, Ca, Be, Zr, Cr, Fe, Sn, Bi as anticorrosion agents in friction coatings containing organic resin and no zinc and no zinc alloy.
A method for making a low density polyurethane and/or polyisocyanurate comprising flexible foam having an apparent density below 100 kg/m 3 and a predominantly open-cell structure with an open-cell content of ≥ 50 % by volume calculated on the total volume of the foam and measured according to ASTM D6226. 10, said method comprising mixing following ingredients of a reactive mixture at an isocyanate index of at least 200: a) a polyisocyanate composition, and b) an isocyanate reactive composition comprising high molecular weight polyols having a molecular weight in the range 500-20000 g/mol and optionally at least one low molecular weight chain extender having a molecular weight < 500 g/mol, and c) a catalyst composition comprising at least one carbodiimide forming catalyst and at least one polyurethane and/or polyisocyanurate forming catalyst, and d) optionally a blowing agent composition selected from physical blowing agents and/or non-reactive chemical blowing agents having no isocyanate reactive groups, and e) optionally further additives such as surfactants, flame retardants, fillers, pigments and/or stabilizers and wherein the reactive mixture contains less than 1 wt% water calculated on the total weight of the reactive mixture. a) a polyisocyanate composition, and b) an isocyanate reactive composition comprising high molecular weight polyols having a molecular weight in the range 500-20000 g/mol and optionally at least one low molecular weight chain extender having a molecular weight < 500 g/mol, and c) a catalyst composition comprising at least one carbodiimide forming catalyst and at least one polyurethane and/or polyisocyanurate forming catalyst, and d) optionally a blowing agent composition selected from physical blowing agents and/or non-reactive chemical blowing agents having no isocyanate reactive groups, and e) optionally further additives such as surfactants, flame retardants, fillers, pigments and/or stabilizers
A header for mounting on a harvesting machine comprising a frame extending at least substantially over the working width of the header , cutting elements arranged on the front side of the header and connected to the frame , conveying surfaces and conveying elements for conveying the cut crop from the cutting elements to a discharge point , and a multi-part reel , the reel parts of which are held on a respective reel shaft and are adjustable in the horizontal direction, said multi-part reel being held above the conveying surface by a reel supporting structure , characterized in that the header has a device with which reel parts can be fixed in at least one position on the reel supporting structure , in which position the reel shaft thereof has, in a horizontal plane, an angular position with respect to a transverse line (Q) to the longitudinal central axis (L) through the header , so that the obliquely positioned reel parts, with their reel sections moved further back, deposit the cut crop further away from the cutting elements at a greater depth of the conveying surface.
A method of manufacturing a laminated wafer by forming a silicon film layer on a surface of an insulating substrate, the method comprising the steps in the following order of: applying a surface activation treatment to a surface of a silicon wafer or a silicon wafer covered with an oxide film and/or to the surface of the insulating substrate; bonding the surfaces to each other in an atmosphere of temperature exceeding 50°C and lower than 300°C; subjecting the bonded substrates to a heat treatment of 200°C to 350°C, wherein the difference between the temperature for subjecting the bonded substrates to a heat treatment and the temperature for bonding the surfaces to each other is 50°C to 150°C; and thinning the silicon wafer by a combination of grinding, etching and polishing to form the silicon film layer on the insulating substrate. applying a surface activation treatment to a surface of a silicon wafer or a silicon wafer covered with an oxide film and/or to the surface of the insulating substrate; bonding the surfaces to each other in an atmosphere of temperature exceeding 50°C and lower than 300°C; subjecting the bonded substrates to a heat treatment of 200°C to 350°C, wherein the difference between the temperature for subjecting the bonded substrates to a heat treatment and the temperature for bonding the surfaces to each other is 50°C to 150°C; and thinning the silicon wafer by a combination of grinding, etching and polishing to form the silicon film layer on the insulating substrate.
A method of printing a 3-dimensional part, comprising: applying a first layer of thermoplastic polymer powder to a powder bed; applying a fusing agent to a first portion of the first layer; applying a detailing agent to a second portion of the first layer immediately adjacent to the first portion, wherein the detailing agent comprises a splash reducing compound comprising an infrared-absorbing dye, a polymeric binder, or combination thereof.; exposing the powder bed with electromagnetic energy sufficient to fuse the fusing agent with the thermoplastic polymer powder at the first portion; applying a second layer of thermoplastic polymer powder to the powder bed on top of the first layer; and applying detailing agent to the second portion of the thermoplastic polymer without substantial powder splash where the thermoplastic polymer powder is not fused. applying a first layer of thermoplastic polymer powder to a powder bed; applying a fusing agent to a first portion of the first layer; applying a detailing agent to a second portion of the first layer immediately adjacent to the first portion, wherein the detailing agent comprises a splash reducing compound comprising an infrared-absorbing dye, a polymeric binder, or combination thereof.; exposing the powder bed with electromagnetic energy sufficient to fuse the fusing agent with the thermoplastic polymer powder at the first portion; applying a second layer of thermoplastic polymer powder to the powder bed on top of the first layer; and applying detailing agent to the second portion of the thermoplastic polymer without substantial powder splash where the thermoplastic polymer powder is not fused.
A method for controlling a driveline of a vehicle , the driveline being operable in a plurality of driveline operating modes, wherein the driveline is configured to assume a current driveline operating mode basing its operation on topology data from a positioning system , each driveline operating mode being associated with a predefined driveline operating condition, the method being characterized by : - obtaining a signal indicative of a loss of topology data; and - controlling the driveline to change from the current driveline operating mode to an updated driveline operating mode providing an increased operational capacity of the driveline compared to the current driveline operating mode when loosing topology data. - obtaining a signal indicative of a loss of topology data; and - controlling the driveline to change from the current driveline operating mode to an updated driveline operating mode providing an increased operational capacity of the driveline compared to the current driveline operating mode when loosing topology data.
A gas turbine comprising: - a compressor compressing air taken in from the atmosphere, as operation fluid, - a combustor mixing and combusting the compressed air supplied from the compressor and fuel, to thereby produce high temperature-high pressure gas, and - a turbine in which moving vanes and stationary vanes are alternately arranged, the turbine being adapted to generate rotary power at the time of expansion of the combusted gas introduced from the combustor ; wherein shroud segments are provided at radially outer portions of the moving vanes, the shroud segments are axially and radially fixed to a turbine casing and circumferentially fixed to the turbine casing by shroud lock pins that are inserted into shroud lock pin holes formed in the turbine casing , the shroud lock pin holes having covers that are provided to the turbine casing by tapered threads which are different from the shroud lock pins to prevent the shroud lock pins from coming out of the holes, wherein each of the tapered threads is a taper-shaped external thread that is threadedly engaged with a taper-shaped internal thread formed in the turbine casing to which the cover is fastened in the shroud lock pin hole ; and wherein the turbine casing and the external and internal tapered thread portions are exposed to the high temperature-high pressure combusted gas, characterized in that a center hole is formed in a center of a bottom surface of the taper-shaped external thread of the cover, and a depth of the center hole is not more than a half of an axial length (L) of the taper-shaped external thread, wherein a diameter and the depth of the center hole are set in such a manner to effectively reduce a contact surface pressure at a portion extending to a tip end side from a half position of the axial length (L) of the taper-shaped external thread, so as to allow the contact surface pressure to become substantially uniform from the tip end to a root of the taper-shaped external thread, and to thereby reduce galling occurring at the engaged tapered thread portions. - a compressor compressing air taken in from the atmosphere, as operation fluid, - a combustor mixing and combusting the compressed air supplied from the compressor and fuel, to thereby produce high temperature-high pressure gas, and - a turbine in which moving vanes and stationary vanes are alternately arranged, the turbine being adapted to generate rotary power at the time of expansion of the combusted gas introduced from the combustor ; wherein
An organic solid three-dimensional polymeric foam consisting of, or comprising a solid continuous phase and pores, wherein said solid continues phase is a cross-linked organic polymer, wherein said pores are separated by plateau borders, the meeting points of said plateau borders forming nodes, wherein said foam has: • A pore size comprised from 50 nm to 100 μm, in particular from 50 nm to less than 10 μm, as measured according to the description, • a volumetric fraction of the solid continuous phase comprised from 0.1 to 60%, with respect to the total volume of the foam, as measured according to the description, • a flexibility/elasticity comprised from 10 to 10 7 Pa, as measured according to the description wherein this value corresponds to the elastic modulus, equal to the ratio of applied shear stress to strain of the foam, measured using a rheometer. • a polydispersity index comprised from 1 to 30%, as measured according to the description, wherein said solid three-dimensional polymeric foam is ordered over a volume of at least 100 pores, in particular over a volume of 100 to 1000 pores, in particular 1000 pores. wherein said solid continues phase is a cross-linked organic polymer, wherein said pores are separated by plateau borders, the meeting points of said plateau borders forming nodes, wherein said foam has: • A pore size comprised from 50 nm to 100 μm, in particular from 50 nm to less than 10 μm, as measured according to the description, • a volumetric fraction of the solid continuous phase comprised from 0.1 to 60%, with respect to the total volume of the foam, as measured according to the description, • a flexibility/elasticity comprised from 10 to 10 7 Pa, as measured according to the description wherein this value corresponds to the elastic modulus, equal to the ratio of applied shear stress to strain of the foam, measured using a rheometer. • a polydispersity index comprised from 1 to 30%, as measured according to the description, • A pore size comprised from 50 nm to 100 μm, in particular from 50 nm to less than 10 μm, as measured according to the description, • a volumetric fraction of the solid continuous phase comprised from 0.1 to 60%, with respect to the total volume of the foam, as measured according to the description, • a flexibility/elasticity comprised from 10 to 10 7 Pa, as measured according to the description wherein this value corresponds to the elastic modulus, equal to the ratio of applied shear stress to strain of the foam, measured using a rheometer. • a polydispersity index comprised from 1 to 30%, as measured according to the description, wherein said solid three-dimensional polymeric foam is ordered over a volume of at least 100 pores, in particular over a volume of 100 to 1000 pores, in particular 1000 pores.
Piscine poxvirus characterized in that it comprises a nucleic acid sequence according to SEQ ID NO:1 and/or a nucleic acid sequence complementary over the total length of said nucleic acid sequence.
A method for distributing polymerase-template complexes into a plurality of nanoscale wells, the method comprising: providing a surface comprising the plurality of nanoscale wells, wherein the nanoscale wells have a cross-sectional diameter of less than 300 nm and a depth of less than 1000 nm; contacting polymerase-template complexes in solution with polyethylene glycol (PEG) and a salt comprising a cation to compact the templates of the polymerase-template complexes, thereby providing a solution comprising compacted polymerase-template complexes, wherein the solution comprises the PEG at 2-30% weight/volume and the cation at 0.05-1000 mM, wherein the polymerase-template complexes comprise nucleic acids having a size greater than 5 kb; and exposing the surface to the solution, whereby the compacted polymerase-template complexes diffuse into the nanoscale wells, thereby distributing the compacted polymerase-template complexes into the nanoscale wells. providing a surface comprising the plurality of nanoscale wells, wherein the nanoscale wells have a cross-sectional diameter of less than 300 nm and a depth of less than 1000 nm; contacting polymerase-template complexes in solution with polyethylene glycol (PEG) and a salt comprising a cation to compact the templates of the polymerase-template complexes, thereby providing a solution comprising compacted polymerase-template complexes, wherein the solution comprises the PEG at 2-30% weight/volume and the cation at 0.05-1000 mM, wherein the polymerase-template complexes comprise nucleic acids having a size greater than 5 kb; and exposing the surface to the solution, whereby the compacted polymerase-template complexes diffuse into the nanoscale wells, thereby distributing the compacted polymerase-template complexes into the nanoscale wells.
A microscope system comprising an electric stage , a microscope controller configured to perform an operation to control an operation of the electric stage used in the microscope system, and a touch panel unit having a display function and being configured to receive an input by an external physical contact, the microscope controller comprising a function setting unit configured to set a stage drive function of driving the electric stage in a specified operation display region of the touch panel unit ; an input detection unit configured to detect the input performed in the operation display region of the touch panel unit ; a determination unit configured to determine a moving mode of the electric stage and generate a control instruction signal for control of the movement of the electric stage depending on the detected input result; and a communication control unit configured to transmit the control instruction signal to a stage drive control unit for control of the operation of the electric stage in X-, Y-, and Z-axis directions, characterized in that the determination unit is configured to generate a control instruction signal for moving the electric stage by a preset distance in the X- and Y-axis directions, when the determination unit determines, based on the result of the detected input, that a position of the input in the operation display region on the touch panel unit has continuously changed by a specified distance or less at at least a specified speed, wherein the electric stage is moved by said preset distance in the X- and Y-axis directions regardless of the dragging length when an input of a specified moved distance or less is made at least a specified speed on the touch panel .
A porous resin bead comprising a first aromatic monovinyl compound-divinyl compound-(meth)acrylonitrile-second aromatic monovinyl compound copolymer, wherein the second aromatic monovinyl compound contains a group capable of binding with a carboxyl group by dehydration condensation reaction, wherein the amount of a structural unit derived from said (meth)acrylonitrile is from 1.8 to 3.0 mmol/g, and wherein the porous resin bead has a dry volume of from 2 to 3 ml/g, determined in accordance with indications provided in the description.
An apparatus configured to control an IPMSM, the apparatus comprising: a current converter configured to generate a current (Idse; Iqse) of a synchronous reference frame from a 3-phase current (Iu, Iv, Iw) of the IPMSM; and a voltage controller configured to generate a d-axis reference voltage (VdseRef) compensating a voltage in response to a load change, characterized by a first generating unit configured to generate a q-axis reference voltage (VqseRef) of the synchronous reference frame from a reference frequency (fref); and characterized in that the voltage controller configured to generate the d-axis reference voltage (VdseRef) by observing a torque component current from the current of the synchronous reference frame obtained by the current converter , and comprises a comparator configured to generate an error between a present current (Iqse[n]) and a pre-present current (Iqse[n-1]) from the current of the synchronous reference frame received from the current converter ; and a second generating unit configured to generate the d-axis reference voltage by applying a proportional gain to the error. a current converter configured to generate a current (Idse; Iqse) of a synchronous reference frame from a 3-phase current (Iu, Iv, Iw) of the IPMSM; and a voltage controller configured to generate a d-axis reference voltage (VdseRef) compensating a voltage in response to a load change, characterized by a first generating unit configured to generate a q-axis reference voltage (VqseRef) of the synchronous reference frame from a reference frequency (fref); and characterized in that the voltage controller configured to generate the d-axis reference voltage (VdseRef) by observing a torque component current from the current of the synchronous reference frame obtained by the current converter , and comprises a comparator configured to generate an error between a present current (Iqse[n]) and a pre-present current (Iqse[n-1]) from the current of the synchronous reference frame received from the current converter ; and a second generating unit configured to generate the d-axis reference voltage by applying a proportional gain to the error.
A computer-implemented method for monitoring an environmental incident associated with a leak , the method comprising: collecting , in real time over a network for the environmental incident in an area of interest, field environmental data comprising information about a source of the leak and leaked material from environmental systems; tracking , in real time for the environmental incident in the area of interest, weather systems using weather data collected from weather systems; tracking , in real time for the environmental incident in the area of interest, changes in vapor cloud images and determining, by the computer, using a vapor cloud model, vapor cloud predictions specific to the leaked material; tracking , in real time, events that occur in the area of interest; tracking emergency preparedness procedures corresponding to the area of interest, characterised by performing root cause analysis for the environmental incident, wherein performing root cause analysis comprises generating, by the computer, an evacuation route in real-time using the collected data, the tracked data, and the determined vapor cloud predictions; and performing an action based on the root cause analysis, wherein performing the action comprises displaying, by the computer, in a graphical user interface, GUI, the evacuation route and graphical information for the environmental incident including a 3D vapor cloud model displayed in combination with a 3D plan model of the area of interest. collecting , in real time over a network for the environmental incident in an area of interest, field environmental data comprising information about a source of the leak and leaked material from environmental systems; tracking , in real time for the environmental incident in the area of interest, weather systems using weather data collected from weather systems; tracking , in real time for the environmental incident in the area of interest, changes in vapor cloud images and determining, by the computer, using a vapor cloud model, vapor cloud predictions specific to the leaked material; tracking , in real time, events that occur in the area of interest; tracking emergency preparedness procedures corresponding to the area of interest, characterised by performing root cause analysis for the environmental incident, wherein performing root cause analysis comprises generating, by the computer, an evacuation route in real-time using the collected data, the tracked data, and the determined vapor cloud predictions; and performing an action based on the root cause analysis, wherein performing the action comprises displaying, by the computer, in a graphical user interface, GUI, the evacuation route and graphical information for the environmental incident including a 3D vapor cloud model displayed in combination with a 3D plan model of the area of interest.
System for metering a liquid or gaseous medium into a fluid stream which flows through a closed channel and has a process pressure (p3), comprising a feed line for the liquid or gaseous medium, wherein the feed line is in fluid-conducting connection with the closed channel , wherein a pressure control valve and a flow sensor are arranged in the feed line , wherein the pressure control valve and the flow sensor are configured as a closed loop control circuit , wherein a measured flow value can generated by the flow sensor , wherein the measured flow value can be fed to a controller as an input value, wherein an output value is attributable to the input value by the controller , wherein the output value corresponds to a desired metering pressure (p2), wherein a pressure difference between the desired metering pressure (p2) and the process pressure (p3) is adjustable by the pressure control valve , such that the metering quantity is determined by the pressure difference between the metering pressure (p2) and the process pressure (p3).