mhurhangee/ep-ind-claims huggingface dataset:
A process for recovering, a polyester component and products of a non-polyester component, from an article comprising a polyester blend comprising said polyester component and said non-polyester component, wherein said polyester component is polyethylene terephthalate, and said non-polyester component is at least one selected from the group consisting of cotton and viscose; said process comprising the following steps: i. hydrolyzing said article at a temperature in the range of 90 to 160 °C for a time period ranging from 10 to 90 minutes, and at a pressure in the range of 3.45 × 10 4 to 1.72×10 5 Pascal (5 to 25 psi), using at least one hydrolyzing agent, being an alkali having concentration in the range of 0.1 to 5% w/v, to obtain a first mixture comprising said polyester component, said non-polyester component, optionally, products of said non-polyester component and said hydrolyzing agent; and ii. incubating said first mixture with at least one enzyme selected from the group consisting of cellulase and a combination of cellulase and pectinase, and having a concentration ranging from 0.5 to 15 g/L,to further convert said non- polyester component into products of said non-polyester component and release the polyester component; wherein said step of incubating is carried out in the presence of sodium citrate as a buffer having strength ranging from 30 to 70 mM and pH ranging from 4.5 to 7.0 for a period ranging from 20 to 50 hours at a temperature ranging from 40 to 60 °C; wherein said step of incubating includes stirring at a speed ranging from 150 to 250 rpm. i. hydrolyzing said article at a temperature in the range of 90 to 160 °C for a time period ranging from 10 to 90 minutes, and at a pressure in the range of 3.45 × 10 4 to 1.72×10 5 Pascal (5 to 25 psi), using at least one hydrolyzing agent, being an alkali having concentration in the range of 0.1 to 5% w/v, to obtain a first mixture comprising said polyester component, said non-polyester component, optionally, products of said non-polyester component and said hydrolyzing agent; and ii. incubating said first mixture with at least one enzyme selected from the group consisting of cellulase and a combination of cellulase and pectinase, and having a concentration ranging from 0.5 to 15 g/L,to further convert said non- polyester component into products of said non-polyester component and release the polyester component; wherein said step of incubating is carried out in the presence of sodium citrate as a buffer having strength ranging from 30 to 70 mM and pH ranging from 4.5 to 7.0 for a period ranging from 20 to 50 hours at a temperature ranging from 40 to 60 °C; wherein said step of incubating includes stirring at a speed ranging from 150 to 250 rpm.
An acrylic laminate film comprising: 30 wt% to 60 wt% of a particulate acrylic rubber copolymer having a multilayer structure of a core and a shell; and 70 wt% to 40 wt% of a bead-shaped acrylic thermoplastic resin, wherein the core of the acrylic rubber copolymer comprises at least one selected from among a methacrylic acid ester monomer, an aromatic vinyl monomer, a cross-linking agent and an initiator, and the shell of the acrylic rubber copolymer comprises at least one selected from among an acrylic acid ester monomer, a methacrylic acid ester monomer, a chain transfer agent, an initiator and a cross-linking agent, wherein the core of the acrylic rubber copolymer comprises 50 wt% to 90 wt% of the methacrylic acid ester monomer and 10 wt% to 50 wt% of the aromatic vinyl monomer such as styrene, a-methylstyrene, o-ethylstyrene, p-ethylstyrene, vinyl toluene, or derivatives thereof, based on a total weight of the monomers, wherein the shell of the acrylic rubber copolymer comprises 10 wt% to 50 wt% of the acrylic acid ester monomer and 50 wt% to 90 wt% of the methacrylic acid ester monomer, based on a total weight of the monomers. wherein the bead-shaped acrylic thermoplastic resin comprises at least one selected from among an acrylic acid ester monomer, a methacrylic acid ester monomer, a chain transfer agent, and an initiator, wherein the acrylic thermoplastic resin comprises 10 wt% to 50 wt% of the acrylic acid ester monomer and 50 wt% to 90 wt% of the methacrylic acid ester monomer, based on the total weight of the monomers, wherein the bead-shaped acrylic thermoplastic resin has the same monomer composition as that of the shell. 30 wt% to 60 wt% of a particulate acrylic rubber copolymer having a multilayer structure of a core and a shell; and 70 wt% to 40 wt% of a bead-shaped acrylic thermoplastic resin,
A mobile computing device comprising: a first port configured with a first pinout to support a first data format; a data source configured to provide data in a second data format different from the first data format; a first multiplexer configured to selectively transmit data from said data source towards said first port, wherein said first port is reconfigurable with a second pinout to support the second data format; characterised by a second multiplexer configured to selectively transmit data from another data source (130, 132) configured to provide data in the first data format and an output from said first multiplexer that includes data in the second data format from the data source configured to provide data in the second format, the data selectively transmitted to said first port. a first port configured with a first pinout to support a first data format; a data source configured to provide data in a second data format different from the first data format; a first multiplexer configured to selectively transmit data from said data source towards said first port, wherein said first port is reconfigurable with a second pinout to support the second data format; characterised by a second multiplexer configured to selectively transmit data from another data source (130, 132) configured to provide data in the first data format and an output from said first multiplexer that includes data in the second data format from the data source configured to provide data in the second format, the data selectively transmitted to said first port.
A projection module for a headlamp, in particular a motor vehicle headlamp, comprising a light source, which is arranged inside a reflector, and which illuminates a projection lens, wherein means are arranged to display a sharp light-dark boundary, the means being integrated into the reflector in such a way that they do not project into the beam path of the light source and the means being formed by at least one edge of the reflector, and where an arcuate recess is introduced into the at least one edge, the radius of which substantially corresponds to the focal length of the projection lens, characterized in that - the reflector is positioned centrally with respect to an optical axis of the projection lens, and - the at least one edge is positioned below the optical axis of the projection lens. - the reflector is positioned centrally with respect to an optical axis of the projection lens, and - the at least one edge is positioned below the optical axis of the projection lens.
A network element for forcing a double user context situation, comprising: means for detecting an internal user equipment context release with regard to a voice session between a user equipment and the network element, wherein the internal user equipment context release has been triggered due to a radio failure when a radio link failure timer has not been started; and means for postponing transmission of a user equipment context release request message in accordance with a delay so that the double user context situation is forced. means for detecting an internal user equipment context release with regard to a voice session between a user equipment and the network element, wherein the internal user equipment context release has been triggered due to a radio failure when a radio link failure timer has not been started; and means for postponing transmission of a user equipment context release request message in accordance with a delay so that the double user context situation is forced.
A glass antenna (10, 10') arranged on a vehicular window glass, the glass antenna (10, 10') comprising: a feeding terminal (15, 55) connected to an antenna amplifier (3, 6); a first antenna (20, 20') connected to the feeding terminal (15, 55) and set so as to receive a radio frequency signal in a first frequency band which has a first wavelength at a central frequency of the first frequency band; a coupling element having a length obtained by multiplying one-half of the first wavelength by a glass reduction rate, the coupling element being connected to the feeding terminal (15, 55); and a second antenna (40, 40') capacitively coupled to the coupling element and set so as to receive a radio frequency signal in a second frequency band which has a second wavelength at a central frequency of the second frequency band, characterized in that the second antenna (40, 40') includes lateral portions extending horizontally, and longitudinal portions (46, 47) which extend vertically to pass through right and left ends of the lateral portions. a feeding terminal (15, 55) connected to an antenna amplifier (3, 6); a first antenna (20, 20') connected to the feeding terminal (15, 55) and set so as to receive a radio frequency signal in a first frequency band which has a first wavelength at a central frequency of the first frequency band; a coupling element having a length obtained by multiplying one-half of the first wavelength by a glass reduction rate, the coupling element being connected to the feeding terminal (15, 55); and a second antenna (40, 40') capacitively coupled to the coupling element and set so as to receive a radio frequency signal in a second frequency band which has a second wavelength at a central frequency of the second frequency band, characterized in that the second antenna (40, 40') includes lateral portions extending horizontally, and longitudinal portions (46, 47) which extend vertically to pass through right and left ends of the lateral portions.
A method for a network node in a wireless communication network for generating inaccuracy characteristics associated with a fingerprinting positioning algorithm used to determine a position of a user equipment in said wireless communication network, said method comprising: determining a fingerprinting position reference, based on said fingerprinting positioning algorithm, for said user equipment; determining a high-accuracy position reference for said user equipment; comparing said fingerprinting position reference and said high-accuracy position reference to generate an error value; generating at least one inaccuracy characteristic based on a plurality of said error values; registering a geographical region associated with said fingerprinting position reference, for said user equipment; and associating said at least one inaccuracy characteristic with said geographical region, wherein the method further comprises calculating an optimum number of said fingerprinting position references based on aggregating a plurality of said fingerprinting position references and a plurality of said high-accuracy position references, associated with a predefined area containing said user equipment; and calculating said at least one inaccuracy characteristic based on said plurality of error values and said optimum number of said fingerprinting position references, and wherein said optimum number of said fingerprinting position references is calculated as a function of at least one of a reliability of said at least one inaccuracy characteristic, a radio signature of said fingerprinting position references, a time domain interval of said fingerprinting position references, and a position measurement density. determining a fingerprinting position reference, based on said fingerprinting positioning algorithm, for said user equipment; determining a high-accuracy position reference for said user equipment; comparing said fingerprinting position reference and said high-accuracy position reference to generate an error value; generating at least one inaccuracy characteristic based on a plurality of said error values; registering a geographical region associated with said fingerprinting position reference, for said user equipment; and associating said at least one inaccuracy characteristic with said geographical region, wherein the method further comprises calculating an optimum number of said fingerprinting position references based on aggregating a plurality of said fingerprinting position references and a plurality of said high-accuracy position references, associated with a predefined area containing said user equipment; and calculating said at least one inaccuracy characteristic based on said plurality of error values and said optimum number of said fingerprinting position references, and wherein said optimum number of said fingerprinting position references is calculated as a function of at least one of a reliability of said at least one inaccuracy characteristic, a radio signature of said fingerprinting position references, a time domain interval of said fingerprinting position references, and a position measurement density.
A method for the production of waste paper fibres and paper containing grass fibres obtained by processing from dried, semi-dried or fresh and/or sour grass and/or sea grass and/or algae, wherein waste paper material and grass material as well as process water are introduced into a pulper and a mass comprising waste paper fibres provided by the waste paper material introduced into the pulper and grass fibres provided by the grass material introduced into the pulper is applied to at least one carrier wire with separation of at least a part of the process water in order to form a paper web, wherein at least a part of the process water is recycled for renewed introduction into the pulper, wherein the process water is originally obtained from fresh water having a pH in the range of 7.0 to 8.5, wherein probiotic bacteria, but not biocides, are added to the process water for at least a reduction of a formation of process-damaging microorganisms, are added to the process water for at least a reduction of a formation of process-damaging microorganisms, and wherein the pH value of the process water is monitored and, if a drop in the pH value below a threshold value is detected, a basic agent is added in increased dosage in order to achieve an adjustment of the pH value of the process water to a target value of 6.5 to 7.0 and to maintain the pH value at this target value, wherein the threshold value of the pH value is at least 0.2, in particular at least 0.3, greater than the target value.
A support structure for supporting an offshore device, comprising: a vertical member having a vertical longitudinal axis; at least three elongated elements positioned around said vertical member, each of said elongated elements including a distal end and a proximal portion, said proximal portion positioned closer to said vertical member than said distal end; a transition joint including a cylindrical portion and a convex portion, said convex portion connected to said vertical member, characterized in that the support structure comprises at least three upper angled braces each connected at a first end to a respective one of said elongated elements and connected at a second end to said convex portion. a vertical member having a vertical longitudinal axis; at least three elongated elements positioned around said vertical member, each of said elongated elements including a distal end and a proximal portion, said proximal portion positioned closer to said vertical member than said distal end; a transition joint including a cylindrical portion and a convex portion, said convex portion connected to said vertical member, characterized in that the support structure comprises at least three upper angled braces each connected at a first end to a respective one of said elongated elements and connected at a second end to said convex portion.
Method for direction finding of incoming signals with a direction finding antenna unit comprising at least an antenna system having several antenna elements, with the following steps: a) one antenna element of the several antenna elements is used as a reference antenna element, and b) a subset of the several antenna elements is selected when the reference antenna element detects an incoming signal, characterized in that the selected subset ensures the best signal-to-noise ratio of all possible subsets of the several antenna elements with respect to the reference antenna element wherein phase difference and orientation of the incoming signal are related to the reference antenna element and wherein the receiving characteristics of the reference antenna element are minimal disturbed by the antenna elements of the selected subset. a) one antenna element of the several antenna elements is used as a reference antenna element, and b) a subset of the several antenna elements is selected when the reference antenna element detects an incoming signal, characterized in that
A flying simulator ride comprising: a track; a bogie coupled to the track; a motion base; a plurality of cables extending from one or more cable control assemblies coupled to the bogie and suspending the motion base from the bogie such that the motion base is capable of motion in multiple degrees of freedom; and a passenger support system comprising a first passenger support unit and a second passenger support unit configured to move relative to one another and configured to support passengers of the flying simulator ride wherein the passenger support system is coupled to the motion base and is configured to assume a ride configuration in which the first passenger support unit is moved away from the motion base. a track; a bogie coupled to the track; a motion base; a plurality of cables extending from one or more cable control assemblies coupled to the bogie and suspending the motion base from the bogie such that the motion base is capable of motion in multiple degrees of freedom; and a passenger support system comprising a first passenger support unit and a second passenger support unit configured to move relative to one another and configured to support passengers of the flying simulator ride wherein the passenger support system is coupled to the motion base and is configured to assume a ride configuration in which the first passenger support unit is moved away from the motion base.
An electromedical device for producing electrical waveforms to be introduced into an individual's body for treating pain, anxiety, insomnia and depression, comprising: a waveform generator producing an electrical waveform having relatively long pulses and a current less than 500 microamperes; first and second electrodes in communication with said waveform generator for contact with the individual's skin, thereby introducing said electrical waveform into the individual's body for transmission to the individual's brain; a device for setting the frequency of said electrical waveform; and a device for setting the current of said electrical waveform, wherein, applying said electrical waveform to the body of the individual would treat anxiety, insomnia and depression, the electromedical device further comprising a current sensing resistor and a voltmeter provided between said waveform generator and said first and second electrodes, and a constant current circuitry connected with the waveform generator, the constant current circuitry providing a current flow through said current sensing resistor and said voltmeter for sensing whether either or both of said electrodes are not in contact with the skin of the individual during operation of the device, the electromedical device being designed to continuously perform self diagnostics to ensure the electrodes are in adequate contact with the skin, characterised in that the device is further designed to continuously perform self diagnostics to ensure that all aspects of the circuitry are always working properly. a waveform generator producing an electrical waveform having relatively long pulses and a current less than 500 microamperes; first and second electrodes in communication with said waveform generator for contact with the individual's skin, thereby introducing said electrical waveform into the individual's body for transmission to the individual's brain; a device for setting the frequency of said electrical waveform; and a device for setting the current of said electrical waveform, wherein, applying said electrical waveform to the body of the individual would treat anxiety, insomnia and depression, the electromedical device further comprising a current sensing resistor and a voltmeter provided between said waveform generator and said first and second electrodes, and a constant current circuitry connected with the waveform generator, the constant current circuitry providing a current flow through said current sensing resistor and said voltmeter for sensing whether either or both of said electrodes are not in contact with the skin of the individual during operation of the device, the electromedical device being designed to continuously perform self diagnostics to ensure the electrodes are in adequate contact with the skin, characterised in that the device is further designed to continuously perform self diagnostics to ensure that all aspects of the circuitry are always working properly.
A method of preparing a composition suitable for a mesenchymal stem cell treatment of a human, wherein the preparation method comprises: a. separating a gingival tissue obtained from a human into cells, b. sorting neural crest derived gingiva mesenchymal stem cells (N-GMSCs), wherein the sorting comprises sorting fluorescein isothiocyanate positive cells as N-GMSCs, and c. preparing a composition comprising N-GMSCs. a. separating a gingival tissue obtained from a human into cells, b. sorting neural crest derived gingiva mesenchymal stem cells (N-GMSCs), wherein the sorting comprises sorting fluorescein isothiocyanate positive cells as N-GMSCs, and c. preparing a composition comprising N-GMSCs.