mhurhangee/ep-ind-claims huggingface dataset:
A method of enriching an oligonucleotide library comprising a plurality of oligonucleotides, the method comprising: (a) performing at least one round of positive selection, wherein the positive selection comprises: (i) contacting at least one sample with the plurality of oligonucleotides, wherein the at least one sample comprises tissue; and (ii) recovering members of the plurality of oligonucleotides that associated with the at least one sample; (b) optionally performing at least one round of negative selection, wherein the negative selection comprises: (i) contacting at least one additional sample with the plurality of oligonucleotides, wherein at least one additional sample comprises tissue; (ii) recovering members of the plurality of oligonucleotides that did not associate with the at least one additional sample; and (c) amplifying the members of the plurality of oligonucleotides recovered in at least one or step (a)(ii) and step (b)(ii), wherein the tissue in the at least one sample in step (a)(i) and/or the tissue in the at least one additional sample in step (b)(i) is lysed, or scraped from a substrate, thereby enriching the oligonucleotide library. (a) performing at least one round of positive selection, wherein the positive selection comprises: (i) contacting at least one sample with the plurality of oligonucleotides, wherein the at least one sample comprises tissue; and (ii) recovering members of the plurality of oligonucleotides that associated with the at least one sample; (i) contacting at least one sample with the plurality of oligonucleotides, wherein the at least one sample comprises tissue; and (ii) recovering members of the plurality of oligonucleotides that associated with the at least one sample; (b) optionally performing at least one round of negative selection, wherein the negative selection comprises: (i) contacting at least one additional sample with the plurality of oligonucleotides, wherein at least one additional sample comprises tissue; (ii) recovering members of the plurality of oligonucleotides that did not associate with the at least one additional sample; and (i) contacting at least one additional sample with the plurality of oligonucleotides, wherein at least one additional sample comprises tissue; (ii) recovering members of the plurality of oligonucleotides that did not associate with the at least one additional sample; and (c) amplifying the members of the plurality of oligonucleotides recovered in at least one or step (a)(ii) and step (b)(ii),
A method by a user equipment, UE, in a wireless communication system, the method comprising: receiving control information for configuring a power headroom report, PHR, from a base station, the configuration information indicating whether a PHR format for the UE is an extended PHR; identifying whether the PHR format for the UE is the extended PHR based on the configuration information; if the PHR format for the UE is the extended PHR, generating the extended PHR including maximum transmission power generated based on a power management-maximum power reduction, P-MPR, and an indicator indicating whether the UE applies the P-MPR, and transmitting the extended PHR to the base station; and if the PHR format for the UE is not the extended PHR, generating a normal PHR without the indicator, and transmitting the normal PHR to the base station. receiving control information for configuring a power headroom report, PHR, from a base station, the configuration information indicating whether a PHR format for the UE is an extended PHR; identifying whether the PHR format for the UE is the extended PHR based on the configuration information; if the PHR format for the UE is the extended PHR, generating the extended PHR including maximum transmission power generated based on a power management-maximum power reduction, P-MPR, and an indicator indicating whether the UE applies the P-MPR, and transmitting the extended PHR to the base station; and if the PHR format for the UE is not the extended PHR, generating a normal PHR without the indicator, and transmitting the normal PHR to the base station.
A separation system comprising: a source of a gaseous mixture wherein the source comprises an oil well and the gaseous mixture comprises a gaseous effluent from a gas-oil separator of the oil well; and wherein the oil well is configured to be subjected to enhanced oil recovery wherein carbon dioxide is injected into an oil reservoir of the oil well to urge oil from the well, said gaseous mixture comprising at least a first constituent comprising carbon dioxide and a second constituent comprising at least one of a hydrocarbon and water; and a separation unit in communication with said source to receive said gaseous mixture and at least partially separate said first constituent from said second constituent, wherein said separation unit comprises at least one of a vortex separator and a pressure vessel and wherein the system is configured to use the first and second constituents in downstream applications such that: the system is configured to send the first constituent comprising carbon dioxide into an oil well for enhanced oil recovery; and the system is configured to combust the second constituent comprising a hydrocarbon for energy generation. a source of a gaseous mixture wherein the source comprises an oil well and the gaseous mixture comprises a gaseous effluent from a gas-oil separator of the oil well; and wherein the oil well is configured to be subjected to enhanced oil recovery wherein carbon dioxide is injected into an oil reservoir of the oil well to urge oil from the well, said gaseous mixture comprising at least a first constituent comprising carbon dioxide and a second constituent comprising at least one of a hydrocarbon and water; and a separation unit in communication with said source to receive said gaseous mixture and at least partially separate said first constituent from said second constituent, wherein said separation unit comprises at least one of a vortex separator and a pressure vessel and wherein the system is configured to use the first and second constituents in downstream applications such that: the system is configured to send the first constituent comprising carbon dioxide into an oil well for enhanced oil recovery; and the system is configured to combust the second constituent comprising a hydrocarbon for energy generation. the system is configured to send the first constituent comprising carbon dioxide into an oil well for enhanced oil recovery; and the system is configured to combust the second constituent comprising a hydrocarbon for energy generation.
Opening device for a package having a designated pour opening and being filled with a pourable product; the opening device comprises a contact portion and a closing element detachably and/or rupturably attached to the contact portion and configured to close the designated pour opening; wherein the closing element comprises: - a central main wall; and - a plurality of leg elements connected to and extending from the central main wall; wherein the central main wall comprises: - a plurality of radially extending ridge elements, each one being interposed between one respective leg element and a center of the central main wall; and - a plurality of grooves, each one extending between one respective pair of leg elements, wherein the leg elements are connected to an annular and peripheral portion of the central main wall; and wherein the annular and peripheral portion comprises the grooves. the opening device comprises a contact portion and a closing element detachably and/or rupturably attached to the contact portion and configured to close the designated pour opening; wherein the closing element comprises: - a central main wall; and - a plurality of leg elements connected to and extending from the central main wall; - a central main wall; and - a plurality of leg elements connected to and extending from the central main wall; wherein the central main wall comprises: - a plurality of radially extending ridge elements, each one being interposed between one respective leg element and a center of the central main wall; and - a plurality of grooves, each one extending between one respective pair of leg elements, - a plurality of radially extending ridge elements, each one being interposed between one respective leg element and a center of the central main wall; and - a plurality of grooves, each one extending between one respective pair of leg elements, wherein the leg elements are connected to an annular and peripheral portion of the central main wall; and wherein the annular and peripheral portion comprises the grooves.
A working machine comprising a body including an engine, a handle extending from the body, and an engine operating device installed in the body and the handle, wherein: the engine operating device includes: a control assembly installed in the body and including a base member, a stop switch secured to the base member, and a lever member supported by the base member to be displaceable between a push position where the lever member pushes the stop switch and a release position where the lever member releases pressure on the stop switch; an operating member mounted on the handle to be operated by a worker; and an operating cable connected with the control assembly and the operating member; the operating cable includes: a throttle wire connected with a throttle of the engine at one end portion and with the operating member at another end portion; a stop wire connected with the lever member at one end portion and with the operating member at another end portion; and a cable tube in which the throttle wire and the stop wire are fitted; and as the operating member is moved to a predetermined engine stop position, the lever member connected with the stop wire moves to the release position and causes the engine to stop. the engine operating device includes: a control assembly installed in the body and including a base member, a stop switch secured to the base member, and a lever member supported by the base member to be displaceable between a push position where the lever member pushes the stop switch and a release position where the lever member releases pressure on the stop switch; an operating member mounted on the handle to be operated by a worker; and an operating cable connected with the control assembly and the operating member; a control assembly installed in the body and including a base member, a stop switch secured to the base member, and a lever member supported by the base member to be displaceable between a push position where the lever member pushes the stop switch and a release position where the lever member releases pressure on the stop switch; an operating member mounted on the handle to be operated by a worker; and an operating cable connected with the control assembly and the operating member; the operating cable includes: a throttle wire connected with a throttle of the engine at one end portion and with the operating member at another end portion; a stop wire connected with the lever member at one end portion and with the operating member at another end portion; and a cable tube in which the throttle wire and the stop wire are fitted; and a throttle wire connected with a throttle of the engine at one end portion and with the operating member at another end portion; a stop wire connected with the lever member at one end portion and with the operating member at another end portion; and a cable tube in which the throttle wire and the stop wire are fitted; and as the operating member is moved to a predetermined engine stop position, the lever member connected with the stop wire moves to the release position and causes the engine to stop.
A computer-implemented method, implemented by one or more digital data processors, for displaying viewer-related content along a given view direction of a MultiView Display, the MVD, operable to display distinct viewer-related content in two or more distinct viewing directions relative to the display, the method comprising: emitting respective encoded time-variable emissions, wherein each of said encoded time-variable emissions is substantially aligned with and encodes a corresponding viewing direction of the MVD; capturing via an optical sensor of a portable communication device located within a given view direction a corresponding encoded time-variable emission; extracting a direction-related identifier from said corresponding encoded time-variable emission; communicating, via said portable communication device, viewer-related data, and a direction-related identifier identifiable from said corresponding encoded time-variable emission, to a network-interfacing content controller communicatively linked to the MVD; selecting, via said content controller, viewer-related content based on said viewer-related data; and displaying, via said content controller and the MVD, said viewer-related content in said given view direction corresponding to said direction-related identifier. emitting respective encoded time-variable emissions, wherein each of said encoded time-variable emissions is substantially aligned with and encodes a corresponding viewing direction of the MVD; capturing via an optical sensor of a portable communication device located within a given view direction a corresponding encoded time-variable emission; extracting a direction-related identifier from said corresponding encoded time-variable emission; communicating, via said portable communication device, viewer-related data, and a direction-related identifier identifiable from said corresponding encoded time-variable emission, to a network-interfacing content controller communicatively linked to the MVD; selecting, via said content controller, viewer-related content based on said viewer-related data; and displaying, via said content controller and the MVD, said viewer-related content in said given view direction corresponding to said direction-related identifier.
An electronic device for a user equipment in a communication system, the communication system comprising a connection maintaining node, a source node, a target node and the user equipment, the electronic device comprising circuitry (1500, 1502, 1504, 1506, 1508), configured to acquire a notification message comprising configuration information of the target node from the connection maintaining node, being a result of an admission control procedure performed by the target node; release connection with the source node, and setup a connection with the target node based on the configuration information; receive data which are transmitted by at least one of the connection maintaining node and the target node from the source node based on the result of the admission control procedure of the target node; wherein when the data are transmitted from the connection maintaining node, they are acceptable by the connection maintaining node; and wherein when the data are transmitted from the target node, they are acceptable by the target node; and wherein the notification message comprises at least one of the following: which part of data related radio bearers of the user equipment that the connection maintaining node admits and which part of the data related radio bearers of the user equipment that the target node admits. the electronic device comprising circuitry (1500, 1502, 1504, 1506, 1508), configured to acquire a notification message comprising configuration information of the target node from the connection maintaining node, being a result of an admission control procedure performed by the target node; release connection with the source node, and setup a connection with the target node based on the configuration information; receive data which are transmitted by at least one of the connection maintaining node and the target node from the source node based on the result of the admission control procedure of the target node; wherein when the data are transmitted from the connection maintaining node, they are acceptable by the connection maintaining node; and wherein when the data are transmitted from the target node, they are acceptable by the target node; and wherein the notification message comprises at least one of the following: which part of data related radio bearers of the user equipment that the connection maintaining node admits and which part of the data related radio bearers of the user equipment that the target node admits.
A thermal transfer or sublimation type image printing apparatus which has a printhead with a plurality of printing elements arrayed in a predetermined direction adapted to print an image by conveying a printing medium in a direction crossing the array direction, and power predicting means for predicting an average power to be supplied to the printhead in printing the image on the basis of image data and convey speed; characterized by further comprising convey speed and number strobe pulses selecting means (32, 33, 35, 36) for selecting a convey speed for the printing medium and the number of strobe pulses for driving the printhead repeatedly given for every unit time to print one line on the basis of the power predicted by the power predicting means, a density of the image and a predetermined relationship between convey speed, number of strobe pulses and maximum attainable density of the image; and image printing means for printing the image at the convey speed and number of strobe pulses selected by the selecting means; wherein the convey speed and number strobe pulses selecting means is adapted to select a highest possible convey speed at which the maximum density of the image to be printed does not exceed the maximum attainable print density and the predicted average power consumption does not exceed a predetermined rated average power consumption.
Lock, in particular mortice lock, having a latch which is retractable through an opening of a face plate and which on its latch tail comprises a slide element guided in the lock housing for engaging a lever and/or a nut, with the slide element being connected by way of a coupling member to the latch tail and the connection being separable by displacement of the coupling member for turning the latch, and a tool introduced laterally through a housing opening separating the connection between the latch tail and the slide element, with the coupling member for coupling with the latch tail being a spring which has a flat rectangular cross-section and is mounted in the slide element and which by its transverse extension engages in a circumferential groove of the latch tail, characterised in that the spring with flat rectangular cross-section engages by its transverse extension in the circumferential groove of the latch tail.
An optical multipass cell (1, 21) comprising a container to which a sample gas is supplied and a pair of concave mirrors (5, 7) arranged so as to face each other inside the container, a laser beam is incident into the container, and the laser beam is multiply reflected between the concave mirrors (5, 7), wherein at least one convex lens is arranged on the optical path of the laser beam that is multiply reflected between the pair of concave mirrors (5, 7) so that the central axis thereof is inclined with respect to the central axis of the concave mirrors, and an acute angle formed by the central axis of the convex lens and the central axis of the concave mirrors (5, 7) is equal to or less than a critical angle θ c defined as θ c = sin -1 (n 2 /n 1), wherein n 2 is the refractive index of the sample gas, and n 1 is the refractive index of the convex lens, and wherein the critical angle is more than 0°. wherein at least one convex lens is arranged on the optical path of the laser beam that is multiply reflected between the pair of concave mirrors (5, 7) so that the central axis thereof is inclined with respect to the central axis of the concave mirrors, and an acute angle formed by the central axis of the convex lens and the central axis of the concave mirrors (5, 7) is equal to or less than a critical angle θ c defined as θ c = sin -1 (n 2 /n 1), wherein n 2 is the refractive index of the sample gas, and n 1 is the refractive index of the convex lens, and wherein the critical angle is more than 0°.
A semiconductor light emitting device (1, 2) which includes a first semiconductor layer of a first conductivity type; a second semiconductor layer of a second conductivity type different from said first conductivity type; and a light emitting layer provided between said first semiconductor layer and said second semiconductor layer, the semiconductor light emitting device comprising: a first electrode formed on said first semiconductor layer; a second electrode formed on said second semiconductor layer; and a light-transmissive electrode covering said second semiconductor layer and said second electrode, said light-transmissive electrode having a film thickness greater than that of said second electrode, wherein contact between said second electrode and said second semiconductor layer is non-ohmic, and characterized in that said second electrode has a stacked structure including a lower layer and an upper layer whose contact resistance with said light-transmissive electrode is lower than that of said lower layer, said lower layer being made of one material of aluminum, rhodium, and silver, or an alloy of the materials, the total thickness of said second electrode being 300 nm (3,000 Å) or less and a surface of said light-transmissive electrode constituting a light emission surface, characterized in that part of said second electrode is exposed through an opening formed in said light-transmissive electrode and is configured to serve as a pad portion for wire bonding. a first electrode formed on said first semiconductor layer; a second electrode formed on said second semiconductor layer; and a light-transmissive electrode covering said second semiconductor layer and said second electrode, said light-transmissive electrode having a film thickness greater than that of said second electrode, wherein contact between said second electrode and said second semiconductor layer is non-ohmic, and characterized in that said second electrode has a stacked structure including a lower layer and an upper layer whose contact resistance with said light-transmissive electrode is lower than that of said lower layer, said lower layer being made of one material of aluminum, rhodium, and silver, or an alloy of the materials, the total thickness of said second electrode being 300 nm (3,000 Å) or less and a surface of said light-transmissive electrode constituting a light emission surface, characterized in that part of said second electrode is exposed through an opening formed in said light-transmissive electrode and is configured to serve as a pad portion for wire bonding.