mhurhangee/ep-ind-claims huggingface dataset:
A matrix-type microfluidic device for single cell transcriptome amplification and identification of specific transcripts from each cell, the device comprising: a plurality of capture sites arranged in a matrix of R rows and C columns, wherein R and C are integers greater than 1, and wherein: each capture site comprises a capture feature that captures one or more cells, wherein each capture site comprises four chambers that can be fluidically isolated from one another, wherein one of said chambers comprises the capture feature; the capture sites can be fluidically isolated from one another after distribution of cells to the capture sites; and a set of R first input lines configured to deliver one or more first reagent(s) to capture sites in a particular row; and a set of C second input lines configured to deliver second reagent(s) to capture sites in a particular column, wherein said delivery is separate from the delivery of the first reagent(s), wherein the first input lines and second input lines are configured to deliver the first reagent(s) and second reagent(s) separately to each capture site after distribution of the cells to the capture sites. each capture site comprises a capture feature that captures one or more cells, wherein each capture site comprises four chambers that can be fluidically isolated from one another, wherein one of said chambers comprises the capture feature; the capture sites can be fluidically isolated from one another after distribution of cells to the capture sites; and a set of R first input lines configured to deliver one or more first reagent(s) to capture sites in a particular row; and a set of C second input lines configured to deliver second reagent(s) to capture sites in a particular column, wherein said delivery is separate from the delivery of the first reagent(s), wherein the first input lines and second input lines are configured to deliver the first reagent(s) and second reagent(s) separately to each capture site after distribution of the cells to the capture sites.
A computer-implemented method comprising: obtaining criteria for a plurality of web applications in an online application store; translating the criteria into at least one rule, the at least one rule based on predefined categories defined by the online application store; obtaining, by the computer, metadata associated with a plurality of websites, by crawling the plurality of websites and determining using the metadata and the at least one rule whether any of the plurality of websites includes code that represents web application content, wherein the crawling comprises performing a search, in the executable code of the content of the plurality of websites, for terms that mention browser permission sequences; inferring, based on the searched terms in the executable code, that the executable code pertains to a web application; using the at least one rule to determine whether the web application content meets a type that belongs to the online application store predefined categories; in response to determining that at least one website in the plurality of websites includes web application content that meets the type defined by the online application store, obtaining the web application content associated with the at least one website and generating an icon for the at least one website, the icon and the web application content being configured for placement as a selectable listing in the online application store; and displaying the icon as a selectable listing in the online application store. obtaining criteria for a plurality of web applications in an online application store; translating the criteria into at least one rule, the at least one rule based on predefined categories defined by the online application store; obtaining, by the computer, metadata associated with a plurality of websites, by crawling the plurality of websites and determining using the metadata and the at least one rule whether any of the plurality of websites includes code that represents web application content, wherein the crawling comprises performing a search, in the executable code of the content of the plurality of websites, for terms that mention browser permission sequences; inferring, based on the searched terms in the executable code, that the executable code pertains to a web application; using the at least one rule to determine whether the web application content meets a type that belongs to the online application store predefined categories; in response to determining that at least one website in the plurality of websites includes web application content that meets the type defined by the online application store, obtaining the web application content associated with the at least one website and generating an icon for the at least one website, the icon and the web application content being configured for placement as a selectable listing in the online application store; and displaying the icon as a selectable listing in the online application store.
Method of producing aromatic hydrocarbon concentrate from liquid hydrocarbon fractions containing non-aromatic hydrocarbons, in which • feedstock components are fed to a mixer, • the mixed components are heated, • they are fed to a reactor in which the heated components undergo conversion in the presence of a zeolite catalyst to aromatic hydrocarbons, • the resulting product is separated into liquid and gaseous phases, • at least part of the resulting gaseous phase is fed to the mixer, • the liquid phase is fed to a rectification column, from which aromatic hydrocarbon concentrate is collected, characterized in that • methanol is additionally fed to the mixer, • the mixed components are heated until they fully homogenize in the gaseous phase, • at least part of the hydrocarbon components remaining in the rectification column after collection are fed to the feedstock component mixer, • the liquid phase is additionally separated into liquid hydrocarbons and water, and the liquid hydrocarbons are fed to the rectification column while the water is diverted, • the composition of liquid aromatic hydrocarbons fed to the rectification column is measured, and based on the results of measurement of the liquid aromatic hydrocarbon composition, the ratio between the feedstock components fed to the mixer and/or the temperature of the rectification column is adjusted. • feedstock components are fed to a mixer, • the mixed components are heated, • they are fed to a reactor in which the heated components undergo conversion in the presence of a zeolite catalyst to aromatic hydrocarbons, • the resulting product is separated into liquid and gaseous phases, • at least part of the resulting gaseous phase is fed to the mixer, • the liquid phase is fed to a rectification column, from which aromatic hydrocarbon concentrate is collected, characterized in that • methanol is additionally fed to the mixer, • the mixed components are heated until they fully homogenize in the gaseous phase, • at least part of the hydrocarbon components remaining in the rectification column after collection are fed to the feedstock component mixer, • the liquid phase is additionally separated into liquid hydrocarbons and water, and the liquid hydrocarbons are fed to the rectification column while the water is diverted, • the composition of liquid aromatic hydrocarbons fed to the rectification column is measured, and based on the results of measurement of the liquid aromatic hydrocarbon composition, the ratio between the feedstock components fed to the mixer and/or the temperature of the rectification column is adjusted.
An apparatus for regulating the lateral displacement of at least one sheet of material, the apparatus comprising at least one roller being rotatably mounted on an axis, wherein the roller comprises: - laths extending in the direction of the axis and being arranged in the circumferential direction of the axis, wherein each lath is mounted such that it can be shifted in the direction of the axis, - at least one lath guiding device on which the shiftable laths are guided, wherein the lath guiding device comprises a corresponding lath guiding portion for each lath, - at least one lath securing device being suitable to secure the laths against detachment from the apparatus when the corresponding lath securing portions are defective, wherein the lath securing device for each of the laths comprises a corresponding lath securing portion, wherein the lath securing portion is arranged inside the lath, wherein the lath securing device is attached to the lath guiding device or a roller body. - laths extending in the direction of the axis and being arranged in the circumferential direction of the axis, wherein each lath is mounted such that it can be shifted in the direction of the axis, - at least one lath guiding device on which the shiftable laths are guided, wherein the lath guiding device comprises a corresponding lath guiding portion for each lath, - at least one lath securing device being suitable to secure the laths against detachment from the apparatus when the corresponding lath securing portions are defective, wherein the lath securing device for each of the laths comprises a corresponding lath securing portion, wherein the lath securing portion is arranged inside the lath, wherein the lath securing device is attached to the lath guiding device or a roller body.
Device for generating a carrier signal (p(t)) from an incident pulse signal (s(t)), said incident pulse signal comprising periodic pulses characterised by a pulse width and a repetition period, the device comprising: - a delay line comprising K delay modules (114 k) arranged in series with one another, each delay module being capable of delaying an input pulse signal, applied at the input of said delay module, in order to deliver an output pulse signal, at the output of said delay module, corresponding to the input pulse signal delayed by a pulse width, the input pulse signal applied at the input of the first delay module (114 1) corresponding to the incident pulse signal and the number K of delay modules being equal to the whole of the repetition period divided by the pulse width, decreased by one unit; - a summer capable of summing the incident pulse signal and the K output pulse signals of the K delay modules of the delay line in order to obtain the carrier signal (p(t)). - a delay line comprising K delay modules (114 k) arranged in series with one another, each delay module being capable of delaying an input pulse signal, applied at the input of said delay module, in order to deliver an output pulse signal, at the output of said delay module, corresponding to the input pulse signal delayed by a pulse width, the input pulse signal applied at the input of the first delay module (114 1) corresponding to the incident pulse signal and the number K of delay modules being equal to the whole of the repetition period divided by the pulse width, decreased by one unit; - a summer capable of summing the incident pulse signal and the K output pulse signals of the K delay modules of the delay line in order to obtain the carrier signal (p(t)).
An electronic smoking system comprising: a first pack communicatively linked to a first electronic smoking device the first pack configured to hold and charge the first device; a second pack communicatively linked to a second electronic smoking device, the second pack configured to hold and charge the second device; a first computer communicatively linked to the first pack and to at least one communication channel; and a second computer communicatively linked to the second pack, the communication channel, and the first computer; characterized in that at least one of the first and second packs (200A, 200B) or the first and second computers (320A, 320B)) are configured to allow a first user of the first pack and a second user of the second pack to participate in a competition based on usage data received from the first computer and the second computer via a dedicated challenge application on the first and second computer (320A, 320B); and wherein the usage data comprises at least one of a maximum or minimum number of puffs taken per day on the first device and the second device, respectively. a first pack communicatively linked to a first electronic smoking device the first pack configured to hold and charge the first device; a second pack communicatively linked to a second electronic smoking device, the second pack configured to hold and charge the second device; a first computer communicatively linked to the first pack and to at least one communication channel; and a second computer communicatively linked to the second pack, the communication channel, and the first computer; characterized in that at least one of the first and second packs (200A, 200B) or the first and second computers (320A, 320B)) are configured to allow a first user of the first pack and a second user of the second pack to participate in a competition based on usage data received from the first computer and the second computer via a dedicated challenge application on the first and second computer (320A, 320B); and wherein the usage data comprises at least one of a maximum or minimum number of puffs taken per day on the first device and the second device, respectively.
A method performed by a first communication device for sending downlink information to a second communication device, wherein the downlink information is data, and wherein a carrier is assigned to the first communication device for sending the downlink information to the second communication device, the first communication device and the second communication device operating in a communications network, the method comprising: scheduling the second communication device using cross carrier scheduling, by sending downlink control information of the carrier on another carrier, to free-up time-frequency resources on the carrier, determining whether or not one or more third communication devices operating in the communications network are sending uplink information on an adjacent carrier, wherein the adjacent carrier is adjacent to the carrier, wherein the determining is performed on the freed-up time-frequency resources, and sending the downlink information to the second communication device on the carrier, only if the first communication device has determined that the one or more third communication devices are not sending uplink information on the adjacent carrier to the carrier used by the first communication device for sending the downlink information. scheduling the second communication device using cross carrier scheduling, by sending downlink control information of the carrier on another carrier, to free-up time-frequency resources on the carrier, determining whether or not one or more third communication devices operating in the communications network are sending uplink information on an adjacent carrier, wherein the adjacent carrier is adjacent to the carrier, wherein the determining is performed on the freed-up time-frequency resources, and sending the downlink information to the second communication device on the carrier, only if the first communication device has determined that the one or more third communication devices are not sending uplink information on the adjacent carrier to the carrier used by the first communication device for sending the downlink information.
Leaf element (1a, 1b) of a folding system, said leaf element having a leaf element frame (3a, 3b) which is predominantly made of wood and which has, in an edge-side abutment region (5a, 5b) that is designed to bear sealingly against an adjacent leaf element (1a, 1b) or against a fixed frame of the folding system, a stabilizing device (7a, 7b) which stabilizes the leaf element frame (3a, 3b) against twisting, characterised in that the stabilizing device (7a, 7b) extends at least over half the length and/or half the height of the abutment region (5a, 5b) and comprises an outer stabilizing profile element (11a, 11b), which is displaced towards an outer side (9a, 9b) of the leaf element (1a, 1b), and an inner stabilizing profile element (15a, 15b), which is displaced towards an inner side (13a, 13b) of the leaf element (1a, 1b), wherein the stabilizing profile elements (11a, 15a; 11b, 15b) are spaced apart from one another transversely to the leaf plane (17a, 17b).
Inner insulation element composed of multiple layers, the inner insulation element comprising the following layers: - a storage layer that absorbs moisture and is composed of storage material that allows diffusion and stores the moisture; - an insulation layer composed of heat-insulating material; - and a vapor-barrier or vapor-retarder layer; characterized in that - the inner insulation element is predominantly composed of inorganic material and comprises a support layer composed of support material, which layer acts as a supporting basic frame for the insulation layer, the vapor-barrier or vapor-retarder layer and the storage layer, - the insulation layer is arranged between the support layer and the storage layer, - the heat-insulating material of the insulation layer has a thermal conductivity of less than 0.03 W/(m x K) and - the vapor-barrier or vapor-retarder layer is arranged between the support layer and the storage layer. - a storage layer that absorbs moisture and is composed of storage material that allows diffusion and stores the moisture; - an insulation layer composed of heat-insulating material; - and a vapor-barrier or vapor-retarder layer; - the inner insulation element is predominantly composed of inorganic material and comprises a support layer composed of support material, which layer acts as a supporting basic frame for the insulation layer, the vapor-barrier or vapor-retarder layer and the storage layer, - the insulation layer is arranged between the support layer and the storage layer, - the heat-insulating material of the insulation layer has a thermal conductivity of less than 0.03 W/(m x K) and - the vapor-barrier or vapor-retarder layer is arranged between the support layer and the storage layer.
A packet processing system architecture comprising a plurality of packet processing stages, wherein at least one of the packet processing stages comprises multiple next processing stage registers (307, 308) that are operably coupled to respective further packet processing stages (304, 302), wherein said at least one of the packet processing stages is arranged to dynamically evaluate which one of the multiple next processing stage registers (307, 308) should be utilised, is further arranged to process a received data packet passing there-through to determine a processing stage of the received data packet, and is still further arranged to decide on the next processing stage registers (307, 308) to utilize based on a determined processing state of the received data packet flow wherein each one of the plurality of packet processing stages is implemented with any number of next processing stage registers (305, 307, 308), wherein each one of the plurality of packet processing stages is operably coupled to at least one next processing stage register (305, 307, 308) so as to form a dynamically reconfigurable pipeline of packet processing stages, and wherein at least one of the next processing stage registers is utilizable to form an operable connection to another packet processing stage so as to dynamically reconfigure the pipeline in real time, wherein the sequence of the pipelined packet processing stages is not pre-wired in hardware.
A heating circuit, comprising an inverter circuit (11, 21, 31), at least one sub-circuit (12, 22), a first power supply (13, 23, 36) and a second power supply (14, 24, 37), wherein the sub-circuit (12, 22) comprises a switch module, a heating element (122, 223, 33) and a detection element (123, 224), wherein the switch module is connected to the heating element (122, 223, 33) and the detection element (123, 224), in response to the switch module being placed in a first switch state, the first power supply (13, 23, 36), the inverter circuit (11, 21, 31) and the heating element (122, 223, 33) are connected to form a first conduction loop, wherein the first power supply (13, 23, 36) supplies power to the heating element (122, 223, 33) through the first conduction loop, and the heating element (122, 223, 33) generates heat based on the power supplied by the first power supply (13, 23, 36), and in response to the switch module being placed in a second switch state, the second power supply (14, 24, 37), the detection element (123, 224) and the heating element (122, 223, 33) are connected to form a second conduction loop, and wherein the second power supply (14, 24, 37) supplies power to the heating element (122, 223, 33) and the detection element (123, 224) through the second conduction loop.
A lithium borosilicate composition, consisting essentially of a system of lithium oxide in combination with silicon oxide and boron oxide, wherein said lithium borosilicate composition comprises between 81-83 atomic % lithium based on the combined atomic percentages of lithium, boron and silicon, and wherein said lithium borosilicate composition is a glass.
A channel state information-reference signal CSI-RS sending method, comprising: receiving capability indication information of each user equipment UE in a cell; determining N transmission schemes based on the capability indication information, wherein N is greater than or equal to 2, and a total quantity of CSI-RSs corresponding to the N transmission schemes is greater than 40; configuring CSI-RS resources to be multiplexed by the CSI-RSs corresponding to the N transmission schemes, wherein the CSI-RS resources are radio sending resources carrying the CSI-RSs corresponding to the N transmission schemes; and sending, to corresponding UE based on each of the N transmission schemes, a CSI-RS that is carried on the CSI-RS resource and that corresponds to the corresponding transmission scheme.
A semiconductor light-emitting element, comprising: a stacking structure having a substrate and a semiconductor layer between a first surface and a second surface that face each other in order from a side on which the first surface is located, the substrate including a compound semiconductor, and the semiconductor layer being crystal-grown on the substrate and including a light-emitting region; a first depression formed on at least a portion of a first edge adjacent to the second surface of the stacking structure, and wherein the first depression is formed on a portion of the first edge, excluding a region corresponding to the light-emitting region; and a second depression formed on a second edge extending along a thickness direction of the stacking structure, characterised in that the second depression is provided as a quarter-circular recess continuously formed from the first surface to the second surface, part of a hole penetrating the stacking structure upon fabrication. a stacking structure having a substrate and a semiconductor layer between a first surface and a second surface that face each other in order from a side on which the first surface is located, the substrate including a compound semiconductor, and the semiconductor layer being crystal-grown on the substrate and including a light-emitting region; a first depression formed on at least a portion of a first edge adjacent to the second surface of the stacking structure, and wherein the first depression is formed on a portion of the first edge, excluding a region corresponding to the light-emitting region; and a second depression formed on a second edge extending along a thickness direction of the stacking structure, characterised in that the second depression is provided as a quarter-circular recess continuously formed from the first surface to the second surface, part of a hole penetrating the stacking structure upon fabrication.