mhurhangee/ep-ind-claims huggingface dataset:
Graphene transistor system for measuring electrophysiological signals, comprising: a. a processing unit, and b. at least one graphene transistor (gSGFET) comprising graphene as channel material contacted by two terminals, being the device characterized by comprising connected to the graphene transistor (gSGFET): a. a tunable voltage source connected at the drain and source terminals of the graphene transistor (gSGFET) referred to the gate voltage, and b. at least one filter configured to acquire and split a signal from the graphene transistor into at least two frequency bands, a low frequency band and a high frequency band, to provide a first low frequency signal and a second high frequency signal, wherein the first low frequency signal and the second high frequency signal are respectively amplified with a gain value. a. a processing unit, and b. at least one graphene transistor (gSGFET) comprising graphene as channel material contacted by two terminals, a. a tunable voltage source connected at the drain and source terminals of the graphene transistor (gSGFET) referred to the gate voltage, and b. at least one filter configured to acquire and split a signal from the graphene transistor into at least two frequency bands, a low frequency band and a high frequency band, to provide a first low frequency signal and a second high frequency signal, wherein the first low frequency signal and the second high frequency signal are respectively amplified with a gain value.
Filter medium, comprising a carrier layer and a microfiber layer applied to this, wherein the microfiber layer has second fibers which are configured as endless melt-blown fibers, wherein the carrier layer has first fibers which are configured as endless bicomponent fibers and spunbonded fibers, characterized in that the carrier layer has a thickness of 0.6 to 2.0 mm and in that the carrier layer has a porosity of at least 70%, preferably of at least 80%, and in that the microfiber layer has a porosity of at least 70%, preferably of greater than 80%.
An antimicrobial formulation comprising: (a) carvacrol; (b) 2-phenoxyethanol; (c) caprylyl glycol; and (d) hexylene glycol, wherein the relative weight percentage of carvacrol to 2-phenoxyethanol ranges from about 10: 0.1 to about 10: 2; wherein the relative weight percentage of carvacrol to caprylyl glycol ranges from about 10: 0.1 to about 10: 1; and wherein the relative weight percentage of carvacrol to hexylene glycol ranges from about 10: 0.02 to about 10: 0.4. (a) carvacrol; (b) 2-phenoxyethanol; (c) caprylyl glycol; and (d) hexylene glycol,
A process for production of a foam having low organic compounds emissions, the process comprising the steps of: a. providing a foam comprising a propylene composition comprising a high melt strength propylene (HMS-PP) homopolymer or copolymer or combinations thereof, said HMS-PP having a melt strength of at least 25 cN at a maximum speed of at least 200 mm/s, as measured in a Rheotens apparatus using a capillary die with a diameter of 2 mm and a length of 6 mm and a temperature of 200 °C with an acceleration of the melt strand drawn down of 120 mm/sec 2, and said foam having a melting temperature of at least 135°C, preferably at least 140°C, measured according to ISO-11357-3 by DSC analysis as described in the description, b. subjecting the foam to a thermal treatment at a temperature Tt between 5 and 15 °C lower than the melting temperature of the HMS-PP and for a duration between 1 and 10 minutes, the melting temperature measured according to ISO-11357-3 by DSC analysis as described in the description. a. providing a foam comprising a propylene composition comprising a high melt strength propylene (HMS-PP) homopolymer or copolymer or combinations thereof, said HMS-PP having a melt strength of at least 25 cN at a maximum speed of at least 200 mm/s, as measured in a Rheotens apparatus using a capillary die with a diameter of 2 mm and a length of 6 mm and a temperature of 200 °C with an acceleration of the melt strand drawn down of 120 mm/sec 2, and said foam having a melting temperature of at least 135°C, preferably at least 140°C, measured according to ISO-11357-3 by DSC analysis as described in the description, b. subjecting the foam to a thermal treatment at a temperature Tt between 5 and 15 °C lower than the melting temperature of the HMS-PP and for a duration between 1 and 10 minutes, the melting temperature measured according to ISO-11357-3 by DSC analysis as described in the description.
Method of modifying an optical light signal which is to be projected from a vehicle onto a surface (31, 33) in the periphery of the vehicle, the method comprising: determining a first image which is to be projected onto the surface by means of the light signal; determining, using an environment representation device which comprises a surface distance measurement device and an optical properties determination device, data representing the surface (31, 33) onto which the light signal is to be projected; modifying the light signal so that the image which is projected onto the surface (31, 33) can be visually correctly perceived as the first image by an observer based on the data representing the surface (31, 33); wherein the data representing the surface (31, 33) comprise at least three-dimensional spatial coordinates of the surface (31, 33). determining a first image which is to be projected onto the surface by means of the light signal; determining, using an environment representation device which comprises a surface distance measurement device and an optical properties determination device, data representing the surface (31, 33) onto which the light signal is to be projected; modifying the light signal so that the image which is projected onto the surface (31, 33) can be visually correctly perceived as the first image by an observer based on the data representing the surface (31, 33); wherein the data representing the surface (31, 33) comprise at least three-dimensional spatial coordinates of the surface (31, 33).
Dynamic transaction card (120,200,300,800) comprising: - a printed circuit board (232,332); - a power source (228,328,820) that is configured to receive power from a EuroPay-MasterCard-Visa terminal; - a power conditioning circuit that is configured to withdraw power from the power source and power the dynamic transaction card (120,...); and - a power management component (230,330), which is configured to manage charging and discharging power to and from the power source (228,...) and is configured to convert a voltage to a predetermined level in order to operate the dynamic transaction card (120,...); and - an activation sensor that is configured to: receive input indicative of a password received on a paired mobile device; and activate the dynamic transaction card (120,...). - a printed circuit board (232,332); - a power source (228,328,820) that is configured to receive power from a EuroPay-MasterCard-Visa terminal; - a power conditioning circuit that is configured to withdraw power from the power source and power the dynamic transaction card (120,...); and - a power management component (230,330), which is configured to manage charging and discharging power to and from the power source (228,...) and is configured to convert a voltage to a predetermined level in order to operate the dynamic transaction card (120,...); and - an activation sensor that is configured to: receive input indicative of a password received on a paired mobile device; and activate the dynamic transaction card (120,...). receive input indicative of a password received on a paired mobile device; and activate the dynamic transaction card (120,...).
Extraction device adapted for preparation of beverages from at least one edible substance contained in a portion package, and presenting a telescopic-like arrangement including a first and second telescopic parts (11, 12) of substantially cylindrical tubular form along a longitudinal axis, adapted so that said first telescopic part can be displaced along a displacement extension along the longitudinal direction, at least in part along at least part of the extension of said second telescopic part that is provided fixed, between an open position where it is at least in part further downstream, and a closed position, and thereby define a chamber-like space adapted for collecting said portion package, and vice-versa, characterized in that said first and second telescopic parts (11, 12) are adapted so that, between said open and closed positions, said first telescopic part can carry out a sequence of a translation movement along said displacement extension along the longitudinal direction, and a rotation movement around said common longitudinal axis, so that it can be retained by means of blocking in the corresponding closed position, and vice-versa between said closed position and open position.
Mixture-lubricated four-stroke engine with a cylinder in which a combustion chamber is formed, wherein the combustion chamber is delimited by a piston which is mounted movably in the cylinder, wherein the piston drives a crankshaft in rotation, which crankshaft is rotatably mounted in a crankcase interior space, wherein the four-stroke engine has an intake channel that opens into the combustion chamber via an inlet opening that is controlled by an inlet valve, wherein an outlet channel that is controlled by an outlet valve leads out of the combustion chamber, having a mixture formation device, wherein the mixture formation device comprises at least one fuel opening that opens into the intake channel, wherein, for the lubrication of the crankcase interior space, the four-stroke engine has a flow connection that connects the intake channel to the crankcase interior space by means of a connecting opening that opens into the intake channel downstream of the mixture formation device, characterized in that the fuel quantity that is fed to the fuel opening is controlled by a fuel valve, and in that the four-stroke engine has a controller, wherein the controller is configured to control the fuel valve in a manner dependent on the position of the crankshaft such that the fuel valve is open at least inter alia during a part of a compression stroke of the four-stroke engine.
A laundry treatment apparatus comprising: a cabinet; a drawer retractably provided in the cabinet; an accommodation unit (4, 5) disposed in the drawer and defining a space configured to receive water; a body provided at the cabinet and configured to be rotatable to a direction where the drawer moves to; and a water discharge channel configured to guide water in the accommodation unit to the outside of the cabinet, characterized in that the water discharge channel is formed as an internal channel inside the body or as an external water pipe supported by the body, and the body is configured to be rotatable over the upper surface of the drawer. a cabinet; a drawer retractably provided in the cabinet; an accommodation unit (4, 5) disposed in the drawer and defining a space configured to receive water; a body provided at the cabinet and configured to be rotatable to a direction where the drawer moves to; and a water discharge channel configured to guide water in the accommodation unit to the outside of the cabinet, characterized in that the water discharge channel is formed as an internal channel inside the body or as an external water pipe supported by the body, and the body is configured to be rotatable over the upper surface of the drawer.
A bearer processing method, performed by a mobile management device, comprising: determining whether a corresponding user equipment, UE, exists, if user subscription data recorded in the mobile management device is changed, wherein the determining, by the mobile management device, whether the corresponding UE exists further comprises determining whether a signaling connection exists between the UE and the mobile management device; and initiating a bearer modification process according to the determining result with respect to whether the UE exists, wherein the initiating, by the mobile management device, the bearer modification process according to the determining result with respect to whether the UE exists further comprises: initiating the bearer modification process if a signaling connection exists between the UE and the mobile management device; wherein the mobile management device comprises a mobility management entity, MME, or a serving general packet radio service supporting node, SGSN. determining whether a corresponding user equipment, UE, exists, if user subscription data recorded in the mobile management device is changed, wherein the determining, by the mobile management device, whether the corresponding UE exists further comprises determining whether a signaling connection exists between the UE and the mobile management device; and initiating a bearer modification process according to the determining result with respect to whether the UE exists, wherein the initiating, by the mobile management device, the bearer modification process according to the determining result with respect to whether the UE exists further comprises: initiating the bearer modification process if a signaling connection exists between the UE and the mobile management device; wherein the mobile management device comprises a mobility management entity, MME, or a serving general packet radio service supporting node, SGSN. initiating the bearer modification process if a signaling connection exists between the UE and the mobile management device; wherein the mobile management device comprises a mobility management entity, MME, or a serving general packet radio service supporting node, SGSN.
A process for producing 2,2-bis(4-hydroxyphenyl)propane (p,p-BPA), comprising: providing a liquid stream comprising phenol and 2,4,4-trimethyl-2-(4-hydroxyphenyl)chroman (chroman 1.5); and feeding the liquid stream to an acidic ion exchange resin at a temperature of from 45°C to 100°C to produce an effluent stream containing p,p-BPA, the acidic ion exchange resin having greater than 2% crosslinkage. providing a liquid stream comprising phenol and 2,4,4-trimethyl-2-(4-hydroxyphenyl)chroman (chroman 1.5); and feeding the liquid stream to an acidic ion exchange resin at a temperature of from 45°C to 100°C to produce an effluent stream containing p,p-BPA, the acidic ion exchange resin having greater than 2% crosslinkage.
An electronic pulse-generator circuit and ferroelectric memory, the electronic pulse-generator circuit comprising: an input node; a capacitor (12, 26, 112) communicatively connected between said input node and a pulse line; a first thin film transistor (16, 30, 44, 64, 72, 82, 116) having a channel formed of a first polarity solution-processed semiconductor material, a first side of said channel communicatively connected to a first voltage source, a second side of said channel communicatively connected to said pulse line, and a gate communicatively connected to the pulse line at the capacitor, said first thin film transistor configured to function as a diode; a second thin film transistor (14, 28, 42, 62, 74, 84, 114) having a channel formed of said first polarity solution-processed semiconductor material, a first side of said channel communicatively connected to said pulse line, a gate and a second side of said channel communicatively connected to a second voltage source, said second thin film transistor configured to function as a resistor; an output node communicatively connected to receive a pulse from said pulse line; and the ferroelectric memory comprising: a ferroelectric memory element communicatively coupled to said output node such that a pulse on said output node may change a state of said ferroelectric memory element. an input node; a capacitor (12, 26, 112) communicatively connected between said input node and a pulse line; a first thin film transistor (16, 30, 44, 64, 72, 82, 116) having a channel formed of a first polarity solution-processed semiconductor material, a first side of said channel communicatively connected to a first voltage source, a second side of said channel communicatively connected to said pulse line, and a gate communicatively connected to the pulse line at the capacitor, said first thin film transistor configured to function as a diode; a second thin film transistor (14, 28, 42, 62, 74, 84, 114) having a channel formed of said first polarity solution-processed semiconductor material, a first side of said channel communicatively connected to said pulse line, a gate and a second side of said channel communicatively connected to a second voltage source, said second thin film transistor configured to function as a resistor; an output node communicatively connected to receive a pulse from said pulse line; and the ferroelectric memory comprising: a ferroelectric memory element communicatively coupled to said output node such that a pulse on said output node may change a state of said ferroelectric memory element. a ferroelectric memory element communicatively coupled to said output node such that a pulse on said output node may change a state of said ferroelectric memory element.
A signal transmission device, wherein the signal transmission device communicates with an opposite terminal, and comprises: a transmitting device, configured to transmit a first signal to the opposite terminal; and a receiving device, configured to receive a second signal transmitted by the opposite terminal, wherein a frequency of the first signal is different from a frequency of the second signal, and the frequency of the first signal and the frequency of the second signal are in a frequency band of visible light; and the first signal is a visible light signal of a first color, the second signal is a visible light signal of a second color, and the first color and the second color are different; and the receiving device comprises: multiple optical-to-electrical converters, disposed in different angles and configured to receive the visible light signal of the second color transmitted by the opposite terminal; and a comparator, configured to compare average powers of visible light signals of the second color that are transmitted by the opposite terminal and received by the multiple optical-to-electrical converters, and configured to select a visible light signal of the second color with a largest average power and perform corresponding processing, so as to obtain an original signal transmitted by the opposite terminal. a transmitting device, configured to transmit a first signal to the opposite terminal; and a receiving device, configured to receive a second signal transmitted by the opposite terminal, wherein a frequency of the first signal is different from a frequency of the second signal, and the frequency of the first signal and the frequency of the second signal are in a frequency band of visible light; and the first signal is a visible light signal of a first color, the second signal is a visible light signal of a second color, and the first color and the second color are different; and the receiving device comprises: multiple optical-to-electrical converters, disposed in different angles and configured to receive the visible light signal of the second color transmitted by the opposite terminal; and a comparator, configured to compare average powers of visible light signals of the second color that are transmitted by the opposite terminal and received by the multiple optical-to-electrical converters, and configured to select a visible light signal of the second color with a largest average power and perform corresponding processing, so as to obtain an original signal transmitted by the opposite terminal.
A user equipment, UE, operable in a wireless communication system, the UE comprising: a transceiver; and a processor operably connected to the transceiver and configured to: receive, from a base station (101, 102, 103), configuration information on a non-zero power channel state information reference signal, CSI-RS, resource associated with an aperiodic sounding reference signal, SRS, receive, from the base station (101, 102, 103), downlink control information including aperiodic SRS trigger information, receive, from the base station (101, 102, 103), a non-zero power CSI-RS associated with the non-zero power CSI-RS resource, wherein the non-zero power CSI-RS resource is identified based on the aperiodic SRS trigger information, identify an uplink precoder for the aperiodic SRS based on the received non-zero power CSI-RS, and transmit, to the base station, the aperiodic SRS, wherein in case that the non-zero power CSI-RS is an aperiodic CSI-RS, the aperiodic SRS trigger information and the non-zero power CSI-RS are received in a same slot. a transceiver; and a processor operably connected to the transceiver and configured to: receive, from a base station (101, 102, 103), configuration information on a non-zero power channel state information reference signal, CSI-RS, resource associated with an aperiodic sounding reference signal, SRS, receive, from the base station (101, 102, 103), downlink control information including aperiodic SRS trigger information, receive, from the base station (101, 102, 103), a non-zero power CSI-RS associated with the non-zero power CSI-RS resource, wherein the non-zero power CSI-RS resource is identified based on the aperiodic SRS trigger information, identify an uplink precoder for the aperiodic SRS based on the received non-zero power CSI-RS, and transmit, to the base station, the aperiodic SRS, wherein in case that the non-zero power CSI-RS is an aperiodic CSI-RS, the aperiodic SRS trigger information and the non-zero power CSI-RS are received in a same slot. receive, from a base station (101, 102, 103), configuration information on a non-zero power channel state information reference signal, CSI-RS, resource associated with an aperiodic sounding reference signal, SRS, receive, from the base station (101, 102, 103), downlink control information including aperiodic SRS trigger information, receive, from the base station (101, 102, 103), a non-zero power CSI-RS associated with the non-zero power CSI-RS resource, wherein the non-zero power CSI-RS resource is identified based on the aperiodic SRS trigger information, identify an uplink precoder for the aperiodic SRS based on the received non-zero power CSI-RS, and transmit, to the base station, the aperiodic SRS, wherein in case that the non-zero power CSI-RS is an aperiodic CSI-RS, the aperiodic SRS trigger information and the non-zero power CSI-RS are received in a same slot.
Device for checking the functionality and the plausibility of a sensor for detecting particles in a gas stream, the sensor comprising a first electrode system and a first current measuring instrument connected to the first electrode system, the device having a second electrode system which is used as a reference, a second current measuring instrument connected to the second electrode system and a comparator, each of the electrode systems (2, 11) being an independently measuring device for measuring the particle concentration, each of which is exposed to the particle stream, and the comparator being set up to compare the signal from the current measuring instrument of the first electrode system with the signal from the current measuring instrument of the second electrode system and to display a signal indicating that the sensor is defective if the result of the comparison exceeds a threshold value.