mhurhangee/ep-ind-claims huggingface dataset:
A remote control, comprising: a button having an associated means for indicating that the button may be operated to interact with interactive program content, wherein the means for indicating is a visual means for selectively modifying the appearance of the button and wherein the button is a hard button; a receiving circuit for accepting a transmission; a processor linked to the receiving circuit and the means for indicating, wherein the processor serves to activate the means for indicating on receipt of a transmission by the receiving circuit; and a transmission circuit for transmitting a signal in response to activation of the button wherein the processor allows transmission of the signal only when the means for indicating is activated. a button having an associated means for indicating that the button may be operated to interact with interactive program content, wherein the means for indicating is a visual means for selectively modifying the appearance of the button and wherein the button is a hard button; a receiving circuit for accepting a transmission; a processor linked to the receiving circuit and the means for indicating, wherein the processor serves to activate the means for indicating on receipt of a transmission by the receiving circuit; and a transmission circuit for transmitting a signal in response to activation of the button wherein the processor allows transmission of the signal only when the means for indicating is activated.
A process for removing hydrogen sulfide and carbon dioxide from a fluid stream selected from gases, comprising a) an absorption step in which the fluid stream is contacted with an absorbent comprising an aqueous solution of (i) 2-(2-tert-butylamino-ethoxy)ethanol and (ii) methyldiethanolamine, where the molar ratio of (i) to (ii) is in the range from 0.1 to 0.9; wherein there is a partial hydrogen sulfide pressure of at least 0.1 bar and a partial carbon dioxide pressure of at least 1 bar in the fluid stream; wherein the fluid stream has a total pressure of at least 20 bar; wherein at least 90% of the hydrogen sulfide is removed from the fluid stream and selectivity for hydrogen sulfide over carbon dioxide is not greater than 8, wherein a CO 2 - and H 2 S-laden absorbent and a treated fluid stream are obtained; wherein the selectivity for hydrogen sulfide over carbon dioxide is understood to mean the value of the quotient y H 2 S feed − y H 2 S treat y H 2 S feed y CO 2 feed − y CO 2 treat y CO 2 feed in which y(H 2 S) feed is the molar proportion (mol/mol) of H 2 S in the fluid stream, y(H 2 S) treat is the molar proportion in the treated fluid stream, y(CO 2) feed is the molar proportion of CO 2 in the fluid stream and y(CO 2) treat is the molar proportion of CO 2 in the treated fluid stream; b) a regeneration step in which at least a substream of the CO 2 - and H 2 S-laden absorbent is regenerated and a regenerated absorbent is obtained; and c) a recycling step in which at least a substream of the regenerated absorbent is recycled into the absorption step a). a) an absorption step in which the fluid stream is contacted with an absorbent comprising an aqueous solution of (i) 2-(2-tert-butylamino-ethoxy)ethanol and (ii) methyldiethanolamine, where the molar ratio of (i) to (ii) is in the range from 0.1 to 0.9; wherein there is a partial hydrogen sulfide pressure of at least 0.1 bar and a partial carbon dioxide pressure of at least 1 bar in the fluid stream; wherein the fluid stream has a total pressure of at least 20 bar; wherein at least 90% of the hydrogen sulfide is removed from the fluid stream and selectivity for hydrogen sulfide over carbon dioxide is not greater than 8, wherein a CO 2 - and H 2 S-laden absorbent and a treated fluid stream are obtained; wherein the selectivity for hydrogen sulfide over carbon dioxide is understood to mean the value of the quotient y H 2 S feed − y H 2 S treat y H 2 S feed y CO 2 feed − y CO 2 treat y CO 2 feed in which y(H 2 S) feed is the molar proportion (mol/mol) of H 2 S in the fluid stream, y(H 2 S) treat is the molar proportion in the treated fluid stream, y(CO 2) feed is the molar proportion of CO 2 in the fluid stream and y(CO 2) treat is the molar proportion of CO 2 in the treated fluid stream; b) a regeneration step in which at least a substream of the CO 2 - and H 2 S-laden absorbent is regenerated and a regenerated absorbent is obtained; and c) a recycling step in which at least a substream of the regenerated absorbent is recycled into the absorption step a).
A method comprising: creating a color image using a first set of color values captured from three sensors (120, 130, 140) that are configured to acquire a plurality of colors (R,G,B) wherein light from a single lens assembly produced by a source image incident on the single lens assembly is split by a beam splitter, wherein an equal amount of light is passed from the beam splitter to each sensor for creating the first set of color values and the three sensors use filters having three different color patterns (210, 220, 230) from each other, wherein each pixel location of the color image has a color value for three colors, the three color values being captured from the three sensors, wherein the three sensors include a first sensor, a second sensor, and a third sensor, and the first sensor is configured to acquire three colors using a three-color pattern, the second sensor uses a three-color pattern different from the three-color pattern of the first sensor, and the third sensor uses a three-color pattern different from the three-color pattern of the first sensor and the three-color pattern of the second sensor, inserting an ND filter between the beam splitter and the first sensor for modifying an intensity of the one of the three equal amounts of light passed to the first sensor; and creating a high dynamic range ("HDR") image having a dynamic range greater than the dynamic range of the color image using a second set of color values captured from the three sensors following the insertion of the NDfilter. creating a color image using a first set of color values captured from three sensors (120, 130, 140) that are configured to acquire a plurality of colors (R,G,B) wherein light from a single lens assembly produced by a source image incident on the single lens assembly is split by a beam splitter, wherein an equal amount of light is passed from the beam splitter to each sensor for creating the first set of color values and the three sensors use filters having three different color patterns (210, 220, 230) from each other, wherein each pixel location of the color image has a color value for three colors, the three color values being captured from the three sensors, wherein the three sensors include a first sensor, a second sensor, and a third sensor, and the first sensor is configured to acquire three colors using a three-color pattern, the second sensor uses a three-color pattern different from the three-color pattern of the first sensor, and the third sensor uses a three-color pattern different from the three-color pattern of the first sensor and the three-color pattern of the second sensor, inserting an ND filter between the beam splitter and the first sensor for modifying an intensity of the one of the three equal amounts of light passed to the first sensor; and creating a high dynamic range ("HDR") image having a dynamic range greater than the dynamic range of the color image using a second set of color values captured from the three sensors following the insertion of the NDfilter.
A wireless communications device comprising: a dual-ported velocity microphone, first circuitry coupled to the microphone, the first circuitry including a noise burst detector and operable to ignore signals from the microphone during time intervals identified as noise bursts by the noise burst detector in estimating ambient noise levels, second circuitry operable to derive a signal-to-noise ratio based at least in part on a measured level of a signal carrying far-end speech, and the estimated ambient noise levels, third circuitry operable to determine a target gain adjustment based at least in part on the derived signal-to-noise ratio, and fourth circuitry operable to apply the target gain adjustment to a signal carrying far-end speech to produce a gain-adjusted signal and provide the gain-adjusted signal to an output of the wireless communications device. a dual-ported velocity microphone, first circuitry coupled to the microphone, the first circuitry including a noise burst detector and operable to ignore signals from the microphone during time intervals identified as noise bursts by the noise burst detector in estimating ambient noise levels, second circuitry operable to derive a signal-to-noise ratio based at least in part on a measured level of a signal carrying far-end speech, and the estimated ambient noise levels, third circuitry operable to determine a target gain adjustment based at least in part on the derived signal-to-noise ratio, and fourth circuitry operable to apply the target gain adjustment to a signal carrying far-end speech to produce a gain-adjusted signal and provide the gain-adjusted signal to an output of the wireless communications device.
A closed breather system for returning blow-by gas extracted from an engine through a gas extraction tube to an intake tube, oil mist being separated and recovered from the blow-by gas through a ventilator, wherein a three-way valve is incorporated upstream of said ventilator in said gas extraction tube such that a passage of said three-way valve is temporarily switched only while the engine remains cold so as to release the blow-by gas upstream of said ventilator to atmosphere.
A radio resource adaptation method for efficient utilization of a fixed radio resource allocated to an uplink and to a downlink for two-way communications between a base station and a user equipment, wherein there is a traffic imbalance between the uplink and the downlink and at least part of the uplink and/or downlink radio resource is unused, the radio resource adaptation method comprising: transmitting information by one of the user equipment or the base station in the uplink or downlink fixed radio resource, respectively; receiving, by the one of the user equipment or the base station, fed-back information from the other of the user equipment or the base station, the fed-back information being transmitted in an unused part of the radio resource allocated to the other of the uplink or downlink fixed radio resource, whereby the fed-back information enables utilization efficiency enhancement of the uplink and/or downlink radio resource; and performing, by the one of the user equipment or the base station, in one of the uplink or downlink, respectively, radio information transmission and/or retransmission, based on the received fed-back information. transmitting information by one of the user equipment or the base station in the uplink or downlink fixed radio resource, respectively; receiving, by the one of the user equipment or the base station, fed-back information from the other of the user equipment or the base station, the fed-back information being transmitted in an unused part of the radio resource allocated to the other of the uplink or downlink fixed radio resource, whereby the fed-back information enables utilization efficiency enhancement of the uplink and/or downlink radio resource; and performing, by the one of the user equipment or the base station, in one of the uplink or downlink, respectively, radio information transmission and/or retransmission, based on the received fed-back information.
A method of generating a sequencer ready library comprising a plurality of amplified nucleic acids suitable for sequencing, said method comprising: contacting a nucleic acid sample to primers, a strand displacing polymerase, and biotin tagged ddNTPs, hybridizing the primers to the nucleic acid sample and extending with the polymerase, and contacting the nucleic acid sample to a streptavidin bead; wherein the library is suitable for sequencing, wherein each of the plurality of amplified nucleic acids has a length of at least 200 bp, wherein the primers comprise a random sequence polynucleotide, and wherein the biotin tagged ddNTP terminates extension, thereby generating terminated amplicons having random 3' ends. contacting a nucleic acid sample to primers, a strand displacing polymerase, and biotin tagged ddNTPs, hybridizing the primers to the nucleic acid sample and extending with the polymerase, and contacting the nucleic acid sample to a streptavidin bead;
A method for wireless communication performed by a user equipment, UE,, comprising: connecting to a first evolved packet data gateway, ePDG, via a first radio access technology, RAT, for communicating in an untrusted network, the first ePDG being associated to a first public land mobile network, PLMN; evaluating (404, 408, 905) an ePDG reselection metric associated with the first ePDG; identifying a connection failure status associated with a packet data network, PDN, gateway (208, 308) associated with the first ePDG; determining that at least a portion of ePDGs associated with the first PLMN are blocked, or that connection attempts to ePDGs of the first PLMN that are not blocked have failed, or combinations of both; and reselecting (410, 910) a second ePDG based at least in part on the ePDG reselection metric satisfying one or more selection conditions and the identifying and determining, wherein the second ePDG is associated with a second PLMN. connecting to a first evolved packet data gateway, ePDG, via a first radio access technology, RAT, for communicating in an untrusted network, the first ePDG being associated to a first public land mobile network, PLMN; evaluating (404, 408, 905) an ePDG reselection metric associated with the first ePDG; identifying a connection failure status associated with a packet data network, PDN, gateway (208, 308) associated with the first ePDG; determining that at least a portion of ePDGs associated with the first PLMN are blocked, or that connection attempts to ePDGs of the first PLMN that are not blocked have failed, or combinations of both; and reselecting (410, 910) a second ePDG based at least in part on the ePDG reselection metric satisfying one or more selection conditions and the identifying and determining, wherein the second ePDG is associated with a second PLMN.
Process for copolymerisation of at least one vinyl ether and at least one aldehyde, optionally in the presence of at least one solvent, characterised in that the copolymerisation is carried out in the presence of at least one reactive boron trihalide complex of the formula BX 3 × x ROH wherein X is a halide, preferably selected from the group consisting of fluorine, chlorine, and bromine, more preferably selected from the group consisting of fluorine and chlorine, and especially fluorine, ROH is an alcohol or water, preferably an alkanol, more preferably a linear or branched C 1 -C 10 -alkanol, even more preferably a linear or branched C 1 -C 4 -alkanol x is a positive number of more than 0 (zero) optionally in the presence of at least one Brønsted Acid and/or Lewis Base, wherein the molar ratio of vinyl ethers: aldehydes is from 10: 1 to 1: 1, preferably from 7: 1.2 to 1: 1.2, more preferably from 5: 1.2 to 1: 1.2, even more preferably from 3: 1.2 to 1: 1.2, and especially from 2: 1.2 to 1: 1.2. X is a halide, preferably selected from the group consisting of fluorine, chlorine, and bromine, more preferably selected from the group consisting of fluorine and chlorine, and especially fluorine, ROH is an alcohol or water, preferably an alkanol, more preferably a linear or branched C 1 -C 10 -alkanol, even more preferably a linear or branched C 1 -C 4 -alkanol x is a positive number of more than 0 (zero) optionally in the presence of at least one Brønsted Acid and/or Lewis Base, wherein the molar ratio of vinyl ethers: aldehydes is from 10: 1 to 1: 1, preferably from 7: 1.2 to 1: 1.2, more preferably from 5: 1.2 to 1: 1.2, even more preferably from 3: 1.2 to 1: 1.2, and especially from 2: 1.2 to 1: 1.2.
Bridge comprising a bridge deck extending in bridge direction or longitudinal direction of the bridge, and two prefab bridge railings (3a,b) made of concrete and situated on either longitudinal side of the bridge deck, wherein the bridge deck is substantially formed by one or more slabs, wherein each bridge railing comprises a lower girder provided with a bearing, particularly a bearing edge, for a longitudinal edge strip of the bridge deck, and wherein the one or more slabs are each supported on both bearings, wherein each bridge railing (3a,b) is built up from a number of bridge railing sections placed in line against each other in bridge direction, that are tensioned against each other by means of tensioning elements (28, 29) extending through the consecutive bridge railing sections.
A braking device for braking a movement of a first vehicle part and a second vehicle part with respect to each other, the braking device comprising: a housing element having an inner bore; a piston element having a shaft extending in the inner bore along a longitudinal axis and being mounted to the housing element such that the shaft is displaceable along the longitudinal axis with respect to the housing element along a displacement path; a braking element (23, 27) arranged within the inner bore of the housing element and constituted to provide a friction force for braking a displacement movement of the piston element and the housing element with respect to each other at least within a portion of the displacement path; a tensioning device constituted to radially act, with respect to the longitudinal axis, onto the braking element (23, 27) to provide a radial tensioning force; wherein the braking element (23, 27), for braking the displacement movement of the piston element and the housing element with respect to each other, is in frictional contact with the housing element or the piston element or a component connected to the housing element or the piston element at least within said portion of the displacement path, characterized in that the tensioning device is constituted by a wrap spring circumferentially extending about the longitudinal axis for acting radially onto the braking element (23, 27). a housing element having an inner bore; a piston element having a shaft extending in the inner bore along a longitudinal axis and being mounted to the housing element such that the shaft is displaceable along the longitudinal axis with respect to the housing element along a displacement path; a braking element (23, 27) arranged within the inner bore of the housing element and constituted to provide a friction force for braking a displacement movement of the piston element and the housing element with respect to each other at least within a portion of the displacement path; a tensioning device constituted to radially act, with respect to the longitudinal axis, onto the braking element (23, 27) to provide a radial tensioning force; wherein the braking element (23, 27), for braking the displacement movement of the piston element and the housing element with respect to each other, is in frictional contact with the housing element or the piston element or a component connected to the housing element or the piston element at least within said portion of the displacement path, characterized in that the tensioning device is constituted by a wrap spring circumferentially extending about the longitudinal axis for acting radially onto the braking element (23, 27).
A touch screen panel comprising: a transparent substrate; a plurality of first coupling patterns arranged in a first layer in rows extending in a first direction; a plurality of second coupling patterns arranged in the first layer in columns extending in a second direction, the said second coupling patterns being spaced from the first coupling patterns; a plurality of first sense cells arranged in rows extending in the first direction in a second layer; a plurality of second sense cells arranged in columns extending in the second direction in the second layer; and a dielectric layer situated between the first and second layers and having first and second contact holes (132, 134) respectively corresponding to end portions of the first and second coupling patterns (124, 144); wherein one of the first and second layers is disposed on the substrate, adjacent ones of the first sense cells are electrically coupled to each other by the first coupling patterns via the first contact holes, and adjacent ones of the second sense cells are electrically coupled to each other by the second coupling patterns via the second contact holes. a transparent substrate; a plurality of first coupling patterns arranged in a first layer in rows extending in a first direction; a plurality of second coupling patterns arranged in the first layer in columns extending in a second direction, the said second coupling patterns being spaced from the first coupling patterns; a plurality of first sense cells arranged in rows extending in the first direction in a second layer; a plurality of second sense cells arranged in columns extending in the second direction in the second layer; and a dielectric layer situated between the first and second layers and having first and second contact holes (132, 134) respectively corresponding to end portions of the first and second coupling patterns (124, 144); wherein one of the first and second layers is disposed on the substrate, adjacent ones of the first sense cells are electrically coupled to each other by the first coupling patterns via the first contact holes, and adjacent ones of the second sense cells are electrically coupled to each other by the second coupling patterns via the second contact holes.
Device for covering at least partially a vehicle floor pan comprising a sound absorbing material and at least a reinforcing block, whereby the reinforcing block is at least partially covered with the sound absorbing material characterised in that at least the lower face of the reinforcing block defines at least a dome shaped protrusion.