mhurhangee/ep-ind-claims huggingface dataset:
Film material comprising a periodic two dimensional array of focusing reflectors, a periodic two dimensional array of micro-images, the film material utilizing the regular two dimensional array of focusing reflectors to enlarge the micro-images, and to form a synthetically magnified image through the united performance of a multiplicity of individual reflector/micro-image image systems, wherein a micro-image layer lies between the position of a viewers eye and the focusing reflectors, wherein the film material utilizes the focusing reflector to project images of the micro-images, and wherein the micro-image layer is maintained at a distance equal to the focal length of the reflectors by an optical separator.
An LED candle light, comprising an outer housing, a battery pack provided at an inner bottom portion of the outer housing and controlled by a power control board, a coil provided above the battery pack, a mounting frame fixed in the outer housing, an LED light fixed on the mounting frame, the LED light being electrically connected with the battery pack, a flame cover covering an outer periphery of the LED light, a pendulum connected with a lower portion of the flame cover through a rotating shaft and a magnet provided at a bottom portion of the pendulum, the magnet being located directly above the coil, wherein a weight of the pendulum is provided with a hanging ring, and supporting frames on both sides of the pendulum are connected with the rotating shaft, so that when the pendulum swings, the flame cover is driven to swing, characterized in that a bottom portion of the mounting frame is provided with a hanging hook and the hanging ring is hanged on and connected to the hanging hook. wherein a weight of the pendulum is provided with a hanging ring, and supporting frames on both sides of the pendulum are connected with the rotating shaft, so that when the pendulum swings, the flame cover is driven to swing, characterized in that a bottom portion of the mounting frame is provided with a hanging hook and the hanging ring is hanged on and connected to the hanging hook.
Headlamp for vehicles with a first light module containing a plurality of LED light sources and an optical unit allocated to the LED light sources with a sensor device for detecting an object located in the area ahead of the vehicle with a control device that, depending on a sensor signal provided by the sensor device and/or on a switching signal of a switching device, actuates the first light module for emitting a first specified light beam (a, b, c), where the first light module features a first cell containing at least one LED light source such that in interaction with the optical unit a first wide light beam (a) is generated for creating a highway light distribution, where the first light module features at least a one second cell (B, C) containing at least one LED light source, so that in interaction with the same optical unit at least one further wide light beam (b, c) can be created that joins on immediately above the first wide light beam (a) and that the first cell and the at least one further cell (B, C) is formed either by a single LED chip or a series of LED chips and that the optical unit features such imaging characteristics that the first wide light beam (a) and the at least one further light beam (b, c) is emitted at a horizontal critical angle (a) of at least 8°, characterized in that the optical unit of the first light module features such imaging characteristics that the first wide light beam (a) and that the at least one further light beam (b, c) is emitted at a vertical critical angle (β) of a maximum of 1° and that the optical unit of the first light module is formed in such a way that a second light module containing an LED light source and an optical unit is provided for with a view to creating a low-beam light distribution with a light-dark cut-off line as a basic light distribution.
Wearing-part holder, where a tip of the wearing-part holder comprises a first section with a first stop surface, which is arranged on the front portion of the tip of the wearing-part holder, a first contact surface and a second contact surface symmetrically arranged from a centre line L-L of the wearing-part holder, from the first stop surface to a second section with a second stop surface and a third stop surface, where the second stop surface and the third stop surface also are symmetrically arranged on each side of the centre line L-L, from the first contact surface and the second contact surface to a third section with a third contact surface and a fourth contact surface, where the third contact surface and the fourth contact surface also are symmetrically arranged on each side of the centre line L-L, from the second stop surface and the third stop surface, wherein a fifth contact surface passes the first, second, and third sections in the longitudinal direction of the wearing-part holder characterized in that the first contact surface, the second contact surface, the second stop surface, the third stop surface, a fourth stop surface, the third contact surface and the fourth contact surface are arranged on the opposite side of the wearing-part holder relative to the fifth contact surface.
A method of evaluating a patient's risk of developing Progressive Multifocal Leukoencephalopathy, the method comprising: determining a JC Virus antibody titer, expressed as an index value in a serum or plasma sample of the patient wherein the patient is determined to have a high risk if the JCV antibody index value is determined to be >1.5; wherein the index value is determined by normalizing an OD value of the sample to a cut-off calibrator, wherein the cut-off calibrator is adjusted to have an OD value of 1, wherein the cut-off calibrator comprises a mixture of serum positive for JCV antibodies and serum negative for JCV antibodies, wherein normalizing an OD value of a negative control comprising JCV antibody negative serum to the cut-off calibrator results in an index value of 0.1, and wherein the JCV antibody titer is determined by an ELISA assay to detect JCV antibody in the sample. determining a JC Virus antibody titer, expressed as an index value in a serum or plasma sample of the patient wherein the patient is determined to have a high risk if the JCV antibody index value is determined to be >1.5; wherein the index value is determined by normalizing an OD value of the sample to a cut-off calibrator, wherein the cut-off calibrator is adjusted to have an OD value of 1, wherein the cut-off calibrator comprises a mixture of serum positive for JCV antibodies and serum negative for JCV antibodies, wherein normalizing an OD value of a negative control comprising JCV antibody negative serum to the cut-off calibrator results in an index value of 0.1, and wherein the JCV antibody titer is determined by an ELISA assay to detect JCV antibody in the sample.
A method for the production of mesitylene-containing products from an initial aromatic composition comprising C9 and higher aromatic components including ethyl and propyl constituents, comprising: a. hydrodealkylating the aromatic components under conditions to selectively remove the ethyl and propyl constituents of the aromatic components as their corresponding alkanes while leaving the methyl constituents; b. transalkylating C7 and C8 methyl benzenes and C10, C11 or C12 methyl benzenes under conditions to rearrange the distribution of methyl groups among the aromatic components into trimethylbenzenes; c. isomerizing the trimethylbenzenes under conditions to redistribute methyl groups among the aromatic components to convert 1,2,3-trimethyl benzene to mesitylene and pseudocumene; and d) recovering trimethylbenzenes by distillation. a. hydrodealkylating the aromatic components under conditions to selectively remove the ethyl and propyl constituents of the aromatic components as their corresponding alkanes while leaving the methyl constituents; b. transalkylating C7 and C8 methyl benzenes and C10, C11 or C12 methyl benzenes under conditions to rearrange the distribution of methyl groups among the aromatic components into trimethylbenzenes; c. isomerizing the trimethylbenzenes under conditions to redistribute methyl groups among the aromatic components to convert 1,2,3-trimethyl benzene to mesitylene and pseudocumene; and d) recovering trimethylbenzenes by distillation.
A first node of a plurality of nodes (120-1 to 120-8) connected by links and associated with a first and a second path, the first node comprising: one or more components to: detect a failure on the first path, the first path being a working path, establish a connection associated with the second path when the failure on the first path is detected, the second path being a protection path, encode a circuit identifier within a field in an overhead portion of a data frame that carries a client signal when the failure on the first path is detected, the circuit identifier instructing a second node of the plurality of nodes (120-1 to 120-8) to establish a connection associated with the second path, and transmit the data frame with the encoded circuit identifier to the second node via the second path; characterized in that the circuit identifier corresponds to the second path; the data frame is compliant with ITU-T G.709; and the field in the overhead portion of the data frame is a trail trace identifier field. one or more components to: detect a failure on the first path, the first path being a working path, establish a connection associated with the second path when the failure on the first path is detected, the second path being a protection path, encode a circuit identifier within a field in an overhead portion of a data frame that carries a client signal when the failure on the first path is detected, the circuit identifier instructing a second node of the plurality of nodes (120-1 to 120-8) to establish a connection associated with the second path, and transmit the data frame with the encoded circuit identifier to the second node via the second path; characterized in that the circuit identifier corresponds to the second path; the data frame is compliant with ITU-T G.709; and the field in the overhead portion of the data frame is a trail trace identifier field. detect a failure on the first path, the first path being a working path, establish a connection associated with the second path when the failure on the first path is detected, the second path being a protection path, encode a circuit identifier within a field in an overhead portion of a data frame that carries a client signal when the failure on the first path is detected, the circuit identifier instructing a second node of the plurality of nodes (120-1 to 120-8) to establish a connection associated with the second path, and transmit the data frame with the encoded circuit identifier to the second node via the second path; characterized in that the circuit identifier corresponds to the second path; the data frame is compliant with ITU-T G.709; and the field in the overhead portion of the data frame is a trail trace identifier field.
A freely-foldable flexible LED screen, comprising a plurality of LED sub-screens, PCBs disposed inside casings of the LED sub-screens, LEDs disposed on the PCB, and conducting wires electrically connecting the PCBs; wherein adjacent LED sub-screens are connected by using a connection mechanism which allows the LED sub-screens to be freely rotated, characterised in that the connection mechanism comprises spindles disposed at the edges of the casings, and a connection rod rotatably connected to the spindles of the casings of two adjacent LED sub-screens, wherein openings (12,13) connected to the spindles on the connection rod are circular openings or elliptical openings, wherein the connection rod is constituted by two half connection blocks symmetrical to the axial line of the connection rod through a screw.
A method of processing received optical signals at a coherent receiver, the method comprising: receiving, at a plurality of analog-to-digital converter ADC sampling clocks, a plurality of separate signals (Ix, Qx, Iy, Qy) based on the received optical signals; performing baud-rate ADC sampling at each of the plurality of ADC sampling clocks; providing the plurality of signals output by the plurality of ADC sampling clocks to a high-speed digital signal processor; performing, at the high-speed digital signal processor high-speed processing of each of the plurality of signals, wherein the high-speed processing provides bandwidth equalization and polarization recovery by: processing the signals using two different types of real-valued or mixed-value equalizers, said processing comprises: inputting each of the plurality of signals to one of a plurality of real-valued or mixed-value multi-tap single input single output SISO equalizers (362, 562); and inputting the plurality of signals into a real-valued single tap multiple input multiple output MIMO equalizer (364, 564); and directly introducing different time delays to each of the plurality of ADC sampling clocks, comprising: detecting, by a baud rate clock phase error detector in a clock recovery loop (350, 450), phase errors, directly introducing different time delays to each of the plurality of ADC sampling clocks, and inputting an output of the high-speed digital signal processor into the baud rate clock phase error detector. receiving, at a plurality of analog-to-digital converter ADC sampling clocks, a plurality of separate signals (Ix, Qx, Iy, Qy) based on the received optical signals; performing baud-rate ADC sampling at each of the plurality of ADC sampling clocks; providing the plurality of signals output by the plurality of ADC sampling clocks to a high-speed digital signal processor; performing, at the high-speed digital signal processor high-speed processing of each of the plurality of signals, wherein the high-speed processing provides bandwidth equalization and polarization recovery by: processing the signals using two different types of real-valued or mixed-value equalizers, said processing comprises: inputting each of the plurality of signals to one of a plurality of real-valued or mixed-value multi-tap single input single output SISO equalizers (362, 562); and inputting the plurality of signals into a real-valued single tap multiple input multiple output MIMO equalizer (364, 564); and inputting each of the plurality of signals to one of a plurality of real-valued or mixed-value multi-tap single input single output SISO equalizers (362, 562); and inputting the plurality of signals into a real-valued single tap multiple input multiple output MIMO equalizer (364, 564); and directly introducing different time delays to each of the plurality of ADC sampling clocks, comprising: detecting, by a baud rate clock phase error detector in a clock recovery loop (350, 450), phase errors, directly introducing different time delays to each of the plurality of ADC sampling clocks, and inputting an output of the high-speed digital signal processor into the baud rate clock phase error detector.
A method of manufacturing a pneumatic tire provided with a magnetic portion containing powder particles of hard magnetic material in the tread portion which comprises a drilling step of drilling a hole in an unvulcanized tread portion forming member; characterised by a magnetic piece embedding step of embedding a magnetic piece containing the powder particles of hard magnetic material in the hole as the magnetic portion; a green tire molding step of molding a green tire using the tread portion forming member in which the magnetic piece is embedded; and a vulcanizing step of vulcanizing the green tire.
A bedding system comprising: a fan box layer comprising a plurality of ducts, each of the ducts being in communication with a fan configured to move air out of the duct and into an area surrounding the bedding system; a capacitor layer positioned above the fan box layer comprising a plurality of outlet ports, each of the outlet ports being in communication with one of the ducts; and a mattress layer positioned above the capacitor layer comprising a bottom portion having a plurality of first holes that are each in communication with at least one of the outlet ports and a top portion having a plurality of second holes that are each in communication with one of the first holes, the top portion defining a sleep surface, characterized in that the top portion comprises a plurality of cavities, each of the cavities extending perpendicular to the second holes such that the cavities each extend through the plurality of the second holes. a fan box layer comprising a plurality of ducts, each of the ducts being in communication with a fan configured to move air out of the duct and into an area surrounding the bedding system; a capacitor layer positioned above the fan box layer comprising a plurality of outlet ports, each of the outlet ports being in communication with one of the ducts; and a mattress layer positioned above the capacitor layer comprising a bottom portion having a plurality of first holes that are each in communication with at least one of the outlet ports and a top portion having a plurality of second holes that are each in communication with one of the first holes, the top portion defining a sleep surface, characterized in that the top portion comprises a plurality of cavities, each of the cavities extending perpendicular to the second holes such that the cavities each extend through the plurality of the second holes.
A method of blowing and filling a container from a preform inside a filling and forming apparatus that comprises a mould and a pressurized liquid injection circuit able to inject a liquid under pressure inside said preform when said preform is placed inside said mould, said method comprising: - placing the preform inside the mould, - stretching the preform placed within a said mould, - starting an injection phase comprising injecting a predetermined volume of liquid through said liquid injection circuit into the preform, - stopping the injection phase by stopping to inject the liquid through the liquid injection circuit into the preform, which creates an overpressure of liquid within the liquid injection circuit, - releasing said overpressure of liquid within the liquid injection circuit before said blown and filled container is released from said mould characterized in that the stopping of the injection phase further comprises closing an injection valve device (24; 124) including at least one discharge channel, said injection valve device (24; 124) is suitable for moving between an open and a closed position said opening of the injection valve device (24; 124) authorizing the liquid that is injected through the pressurized liquid injection circuit to flow through the open injection valve device (24; 124) for being injected into the preform, and prohibiting the at least one discharge channel to be in communication with the pressurized liquid injection circuit, said closing of the injection valve device enabling communication of liquid between the pressurized liquid injection circuit and the at least one discharge channel through which the overpressure is released, wherein closing the injection valve device (24; 124) both prohibiting the liquid that is in the pressurized liquid injection circuit from flowing through the injection valve device (24; 124) for being injected into the preform, and enables liquid communication between the pressurized liquid injection circuit and the at least one discharge channel. - placing the preform inside the mould, - stretching the preform placed within a said mould, - starting an injection phase comprising injecting a predetermined volume of liquid through said liquid injection circuit into the preform, - stopping the injection phase by stopping to inject the liquid through the liquid injection circuit into the preform, which creates an overpressure of liquid within the liquid injection circuit, - releasing said overpressure of liquid within the liquid injection circuit before said blown and filled container is released from said mould
Input device for an electronic apparatus, comprising: - a printed circuit board with a top side, a bottom side, and an opening; - a rotary wheel module that has a rotary wheel; - a signal generator for generating electrical signals corresponding to an operation of the rotary wheel, said signal generator being connected to the printed circuit board, the rotary wheel module being mounted in the opening characterized in that the rotary wheel is located above the top side of the printed circuit board and the rotary wheel module comprises an undercarriage to which the rotary wheel is rotatably mounted and in that the input device further comprises a press button that is mounted on said undercarriage, the press button being non-rotatably mounted in a central opening of the rotary wheel and resting on a central metal dome of a metal dome assembly comprised in the rotary wheel module. - a printed circuit board with a top side, a bottom side, and an opening; - a rotary wheel module that has a rotary wheel; - a signal generator for generating electrical signals corresponding to an operation of the rotary wheel, said signal generator being connected to the printed circuit board,
Method for producing a silicon wafer for an electronic component, having the method step of epitaxially growing a silicon layer on a carrier substrate and detaching the silicon layer as a silicon wafer from the carrier substrate, wherein at least one p-type dopant and at least one n-type dopant are introduced into the silicon layer during the epitaxial growth, characterised in that the dopants are introduced into the silicon layer such that the silicon layer is formed with an electrically active p-type doping and an electrically active n-type doping, in each case with a concentration in the range of 1×10 14 cm -3 to 1×10 16 cm -3, and in that the silicon wafer is formed with an electrically active net doping of at least 1×10 14 cm -3. having the method step of epitaxially growing a silicon layer on a carrier substrate and detaching the silicon layer as a silicon wafer from the carrier substrate, wherein at least one p-type dopant and at least one n-type dopant are introduced into the silicon layer during the epitaxial growth, characterised in that the dopants are introduced into the silicon layer such that the silicon layer is formed with an electrically active p-type doping and an electrically active n-type doping, in each case with a concentration in the range of 1×10 14 cm -3 to 1×10 16 cm -3, and in that the silicon wafer is formed with an electrically active net doping of at least 1×10 14 cm -3.
A rubber composition comprising a rubber component, a farnesene polymer and silica, wherein the silica has an average particle size of from 10 to 100 nm.