mhurhangee/ep-ind-claims huggingface dataset:
A method for requesting best effort resource scheduling from a donor evolved Node B, eNB, comprising: determining one or more parameters related to best effort traffic with a donor eNB; and requesting a guaranteed bit rate, GBR, bearer from the donor eNB specifying a data rate based on the one or more parameters and a number of served UEs (110, 112), wherein a non-GBR bearer is used with the donor eNB prior to requesting the GBR bearer from the donor eNB. determining one or more parameters related to best effort traffic with a donor eNB; and requesting a guaranteed bit rate, GBR, bearer from the donor eNB specifying a data rate based on the one or more parameters and a number of served UEs (110, 112), wherein a non-GBR bearer is used with the donor eNB prior to requesting the GBR bearer from the donor eNB.
An upright cleaner comprising: a case having a suction port; a drum brush rotatably provided in the case to sweep and guide foreign matter to the suction port; a dust removal unit (20, 20b) provided in the case and comprising a bar-type body (201, 201b) and a dusting part (202, 202b) directly extending from the body so that the dust removal unit is moved rotatably between a first position where the dusting part (202, 202b) contacts the drum brush and a second position where the dusting part (202, 202b) is separated from the drum brush; an extension part (301a, 301b) directly connected to the body; and a bent part integrally formed with the extension part and extending from an end of the extension part, wherein when a force is applied to the bent part, the force is transmitted through the extension part to the dust removal unit such that the dusting part moves through rotation from the second position to the first position. a case having a suction port; a drum brush rotatably provided in the case to sweep and guide foreign matter to the suction port; a dust removal unit (20, 20b) provided in the case and comprising a bar-type body (201, 201b) and a dusting part (202, 202b) directly extending from the body so that the dust removal unit is moved rotatably between a first position where the dusting part (202, 202b) contacts the drum brush and a second position where the dusting part (202, 202b) is separated from the drum brush; an extension part (301a, 301b) directly connected to the body; and a bent part integrally formed with the extension part and extending from an end of the extension part, wherein when a force is applied to the bent part, the force is transmitted through the extension part to the dust removal unit such that the dusting part moves through rotation from the second position to the first position. a drum brush rotatably provided in the case to sweep and guide foreign matter to the suction port; a dust removal unit (20, 20b) provided in the case and comprising a bar-type body (201, 201b) and a dusting part (202, 202b) directly extending from the body so that the dust removal unit is moved rotatably between a first position where the dusting part (202, 202b) contacts the drum brush and a second position where the dusting part (202, 202b) is separated from the drum brush; an extension part (301a, 301b) directly connected to the body; and a bent part integrally formed with the extension part and extending from an end of the extension part, wherein when a force is applied to the bent part, the force is transmitted through the extension part to the dust removal unit such that the dusting part moves through rotation from the second position to the first position.
A heat pump comprising: one or more thermoelectric devices having one or more thermoelectric elements defining a planar face; and a heat sink comprising: a slab of thermally conductive material having a raised portion with a top surface thermally coupled with the planar face, wherein the raised portion of the slab includes: an outer periphery and a central raised region defined in a shape corresponding to an uneven temperature distribution of the planar face, a void region between the outer periphery and the central raised region, wherein the void region substantially surrounds and is substantially contiguous about the central raised region; and one or more supports of a material having lower thermal conductivity than the slab, wherein the one or more supports are disposed within the void region so as to support one or more thermoelectric elements facing the void region. one or more thermoelectric devices having one or more thermoelectric elements defining a planar face; and a heat sink comprising: a slab of thermally conductive material having a raised portion with a top surface thermally coupled with the planar face, wherein the raised portion of the slab includes: an outer periphery and a central raised region defined in a shape corresponding to an uneven temperature distribution of the planar face, a void region between the outer periphery and the central raised region, wherein the void region substantially surrounds and is substantially contiguous about the central raised region; and one or more supports of a material having lower thermal conductivity than the slab, wherein the one or more supports are disposed within the void region so as to support one or more thermoelectric elements facing the void region. an outer periphery and a central raised region defined in a shape corresponding to an uneven temperature distribution of the planar face, a void region between the outer periphery and the central raised region, wherein the void region substantially surrounds and is substantially contiguous about the central raised region; and one or more supports of a material having lower thermal conductivity than the slab, wherein the one or more supports are disposed within the void region so as to support one or more thermoelectric elements facing the void region.
A method for measuring a fill level of a filling material in a container, comprising the following method steps: - emitting a first signal (S 1) toward the filling material; - receiving a corresponding first incoming signal (E 1) after reflection of the first signal (S 1) in the interior of the container; - emitting a second signal (S 2) toward the filling material, with a characteristic which differs from the characteristic of the first signal (S 1); - receiving a corresponding second incoming signal (E 2) after reflection of the second signal (S 2) in the interior of the container; - ascertaining a first fill level value using the first incoming signal (E 1) and determining a second fill level value using the second incoming signal (E 2); and - determining the first fill level value or the second fill level value as the fill level, provided that the first fill level value and the second fill level value match. - emitting a first signal (S 1) toward the filling material; - receiving a corresponding first incoming signal (E 1) after reflection of the first signal (S 1) in the interior of the container; - emitting a second signal (S 2) toward the filling material, with a characteristic which differs from the characteristic of the first signal (S 1); - receiving a corresponding second incoming signal (E 2) after reflection of the second signal (S 2) in the interior of the container; - ascertaining a first fill level value using the first incoming signal (E 1) and determining a second fill level value using the second incoming signal (E 2); and - determining the first fill level value or the second fill level value as the fill level, provided that the first fill level value and the second fill level value match.
A method for processing information, comprising: after a terminal receiving information sent to an account into which multiple terminals have logged, according to priority information of the account which is sent by a network side device, each terminal of the multiple terminals determining whether a priority of the terminal thereof is highest; wherein the priority information comprises identifiers of the multiple terminals which log into the account and priorities corresponding to the identifiers; if yes, starting up an application program corresponding to the received information sent to the account into which the multiple terminals have already logged; if no, not starting up the application program corresponding to the received information sent to the account into which the multiple terminals have already logged.
High-pressure gas discharge lamp comprising - a sealed discharge vessel with an inner discharge space, - with at least two electrodes projecting into said discharge space, said electrodes being free of Th, - and with a filling in the discharge space, said filling comprising metal halides and a rare gas and being free of Hg and Th, - where said halides comprise at least NaI and ScI 3, characterized in that - said halides are provided in an amount of 7.1-11.4 μg/mm 3 of the volume of said discharge space, - and where NaI and ScI 3 are provided in such amounts that a ratio of the masses of NaI to ScI 3 is 1.2-1.6. - a sealed discharge vessel with an inner discharge space, - with at least two electrodes projecting into said discharge space, said electrodes being free of Th, - and with a filling in the discharge space, said filling comprising metal halides and a rare gas and being free of Hg and Th, - where said halides comprise at least NaI and ScI 3, - said halides are provided in an amount of 7.1-11.4 μg/mm 3 of the volume of said discharge space, - and where NaI and ScI 3 are provided in such amounts that a ratio of the masses of NaI to ScI 3 is 1.2-1.6.
A biosensor (102, 300, 400) for base calling, comprising: a sampling device, the sampling device including a sample surface having an array of pixel areas (306', 308', 310', 312', 314', 1106') that can each hold more than one cluster during a base calling cycle, and a solid-state imager having an array of sensors (306, 308, 310, 312, 314, 1106), each sensor (306, 308, 310, 312, 314, 1106) configured to generate pixel signals in each base calling cycle, each pixel signal representing light gathered from a corresponding pixel area (306', 308', 310', 312', 314', 1106') of the sample surface; and a signal processor (104, 130, 138) configured for connection to the sampling device and, when connected to the sampling device, configured to receive and process the pixel signals from the sensors (306, 308, 310, 312, 314, 1106) for base calling in a base calling cycle, and to use the pixel signals from fewer sensors (306, 308, 310, 312, 314, 1106) than a number of clusters (1102A, 1104A, 306A-B) base called in the base calling cycle, characterized in that the pixel signals from the fewer sensors (306, 308, 310, 312, 314, 1106) include at least one pixel signal representing light simultaneously gathered from at least two clusters (1102A, 1104A, 306A-B) in the corresponding pixel area (1106', 306'), and in that the signal processor (104, 130, 138) is configured to process said at least one pixel signal to base call each of the at least two clusters (1102A, 1104A, 306A-B). a sampling device, the sampling device including a sample surface having an array of pixel areas (306', 308', 310', 312', 314', 1106') that can each hold more than one cluster during a base calling cycle, and a solid-state imager having an array of sensors (306, 308, 310, 312, 314, 1106), each sensor (306, 308, 310, 312, 314, 1106) configured to generate pixel signals in each base calling cycle, each pixel signal representing light gathered from a corresponding pixel area (306', 308', 310', 312', 314', 1106') of the sample surface; and a signal processor (104, 130, 138) configured for connection to the sampling device and, when connected to the sampling device, configured to receive and process the pixel signals from the sensors (306, 308, 310, 312, 314, 1106) for base calling in a base calling cycle, and to use the pixel signals from fewer sensors (306, 308, 310, 312, 314, 1106) than a number of clusters (1102A, 1104A, 306A-B) base called in the base calling cycle, characterized in that the pixel signals from the fewer sensors (306, 308, 310, 312, 314, 1106) include at least one pixel signal representing light simultaneously gathered from at least two clusters (1102A, 1104A, 306A-B) in the corresponding pixel area (1106', 306'), and in that the signal processor (104, 130, 138) is configured to process said at least one pixel signal to base call each of the at least two clusters (1102A, 1104A, 306A-B).
A vehicle AC generator, comprising: a rotor provided on a shaft; a stator disposed so as to oppose the rotor; a rectifier rectifying current generated in the stator; a regulator adjusting voltage generated in the stator; and a resin cover covering the rectifier, wherein a partitioning section is integrally formed on the inner side of the resin cover; and the partitioning section extends in a peripheral direction and rises in an axial direction of the shaft, characterized in that the partitioning section extends so as to separate metal parts of different potentials, and in that the rectifier has a plurality of diodes (+), respective heat generation sections of which are electrically connected to respective cathodes, and a plurality of diodes (-), respective heat generation sections of which are electrically connected to respective anodes; and the partitioning section extends so as to separate a heat sink (+) to which the cathodes of the diodes (+) are electrically connected, and a heat sink (-) to which the anodes of the diodes (-) are electrically connected. a rotor provided on a shaft; a stator disposed so as to oppose the rotor; a rectifier rectifying current generated in the stator; a regulator adjusting voltage generated in the stator; and a resin cover covering the rectifier, wherein a partitioning section is integrally formed on the inner side of the resin cover; and the partitioning section extends in a peripheral direction and rises in an axial direction of the shaft, characterized in that the partitioning section extends so as to separate metal parts of different potentials, and in that the rectifier has a plurality of diodes (+), respective heat generation sections of which are electrically connected to respective cathodes, and a plurality of diodes (-), respective heat generation sections of which are electrically connected to respective anodes; and the partitioning section extends so as to separate a heat sink (+) to which the cathodes of the diodes (+) are electrically connected, and a heat sink (-) to which the anodes of the diodes (-) are electrically connected.
A medical device comprising: a device body and an insufflation fitting coupled to and extending from the device body; the insufflation fitting comprising an annular low-flow fitting, an annular high-flow fitting, and a single flow passageway, the single flow passageway defining a flow path for insufflation gas flow through the insufflation fitting into the device body; the annular low-flow fitting comprising: a radially outward surface generally reverse of a first inner sealing surface, the first inner sealing surface defining at least a portion of the single flow passageway; and a coupling portion on the radially outward surface: the annular high-flow fitting comprising: a second inner sealing surface extending around and radially offset from the radially outward surface of the annular low-flow fitting; a second radially outer surface generally reverse of the second inner sealing surface; and a coupling portion on the second radially outer surface; a low-flow connector comprising a radially outer male sealing surface configured for sealing engagement with the first inner sealing surface; a high-flow connector configured to surround the annular low-flow fitting and comprising a radially outer male sealing surface configured for sealing engagement with the second inner sealing surface. a device body and an insufflation fitting coupled to and extending from the device body; the insufflation fitting comprising an annular low-flow fitting, an annular high-flow fitting, and a single flow passageway, the single flow passageway defining a flow path for insufflation gas flow through the insufflation fitting into the device body; the annular low-flow fitting comprising: a radially outward surface generally reverse of a first inner sealing surface, the first inner sealing surface defining at least a portion of the single flow passageway; and a coupling portion on the radially outward surface: a radially outward surface generally reverse of a first inner sealing surface, the first inner sealing surface defining at least a portion of the single flow passageway; and a coupling portion on the radially outward surface: the annular high-flow fitting comprising: a second inner sealing surface extending around and radially offset from the radially outward surface of the annular low-flow fitting; a second radially outer surface generally reverse of the second inner sealing surface; and a coupling portion on the second radially outer surface; a second inner sealing surface extending around and radially offset from the radially outward surface of the annular low-flow fitting; a second radially outer surface generally reverse of the second inner sealing surface; and a coupling portion on the second radially outer surface; a low-flow connector comprising a radially outer male sealing surface configured for sealing engagement with the first inner sealing surface; a high-flow connector configured to surround the annular low-flow fitting and comprising a radially outer male sealing surface configured for sealing engagement with the second inner sealing surface.
A method, comprising: configuring a plurality of component carriers (910, 920) in a wireless communication system; allocating a first search space for control information messages associated with a first component carrier and a second search space for control information messages associated with a second component carrier, wherein the first component carrier is different from the second component carrier, such that the first and second search spaces (930, 940) are located on different component carriers, and wherein the first and second search spaces (930, 940) are shared by control information messages associated with the first and second component carriers (910, 920) in case where downlink control information, DCI, format sizes of the control information messages associated with the first and second component carriers (910, 920) are the same; obtaining at least a first control information message associated with the first component carrier; and transmitting the first control information message mapped to at least the second search space. configuring a plurality of component carriers (910, 920) in a wireless communication system; allocating a first search space for control information messages associated with a first component carrier and a second search space for control information messages associated with a second component carrier, wherein the first component carrier is different from the second component carrier, such that the first and second search spaces (930, 940) are located on different component carriers, and wherein the first and second search spaces (930, 940) are shared by control information messages associated with the first and second component carriers (910, 920) in case where downlink control information, DCI, format sizes of the control information messages associated with the first and second component carriers (910, 920) are the same; obtaining at least a first control information message associated with the first component carrier; and transmitting the first control information message mapped to at least the second search space.
A method of capturing a target nucleic acid, the method comprising: contacting a sample suspected of containing the target nucleic acid with a target capture oligomer and an immobilized probe; the target capture oligomer comprising first and second hairpin stem segments differing in length by at least two nucleobase units flanking a target-binding segment complementary to target nucleic acid, the target capture oligomer being in the form of or formable as a hairpin stem-loop, the stem being formed by intramolecular hybridization of the first and second hairpin stem segments and the target-binding segment constituting the loop; the immobilized probe comprising a support bearing a probe comprising a segment complementary to the first or second hairpin stem segment; wherein if the sample contains the target nucleic acid, the target nucleic acid hybridizes to the target-binding segment disrupting the intramolecular hybridization of the first and second hairpin stem segments, as a result of which the first or second hairpin segment hybridizes to the complementary segment on the immobilized probe forming a support-bound capture hybrid; and if the sample does not contain the target nucleic acid the first and second segments are intramolecularly hybridized as a stem. contacting a sample suspected of containing the target nucleic acid with a target capture oligomer and an immobilized probe; the target capture oligomer comprising first and second hairpin stem segments differing in length by at least two nucleobase units flanking a target-binding segment complementary to target nucleic acid, the target capture oligomer being in the form of or formable as a hairpin stem-loop, the stem being formed by intramolecular hybridization of the first and second hairpin stem segments and the target-binding segment constituting the loop; the immobilized probe comprising a support bearing a probe comprising a segment complementary to the first or second hairpin stem segment; wherein if the sample contains the target nucleic acid, the target nucleic acid hybridizes to the target-binding segment disrupting the intramolecular hybridization of the first and second hairpin stem segments, as a result of which the first or second hairpin segment hybridizes to the complementary segment on the immobilized probe forming a support-bound capture hybrid; and if the sample does not contain the target nucleic acid the first and second segments are intramolecularly hybridized as a stem.
A method of monitoring transport of a sheet media though a media processing apparatus comprising steps of: conveying at least one sheet media with a transport apparatus including one or more rollers from a queue mechanism along a medium transport path; detecting a vibration propagating in the media processing apparatus using at least one vibration detection unit and generating detected vibration signals; characterized by the steps of detecting, sound values associated with the engagement of the rollers with sheet media, with at least one microphone responsive to sounds associated with the engagement of the rollers; analyzing, in a processing system, the detected vibration signals and detected sound values, wherein the analyzing includes determining whether the detected vibration signals and detected sound values are associated with normal or abnormal handling of sheet media in the media processing apparatus; signaling an error condition to a control system in response to determining that the detected vibration signals and detected sound values are associated with abnormal handling of the sheets. conveying at least one sheet media with a transport apparatus including one or more rollers from a queue mechanism along a medium transport path; detecting a vibration propagating in the media processing apparatus using at least one vibration detection unit and generating detected vibration signals; characterized by the steps of detecting, sound values associated with the engagement of the rollers with sheet media, with at least one microphone responsive to sounds associated with the engagement of the rollers; analyzing, in a processing system, the detected vibration signals and detected sound values, wherein the analyzing includes determining whether the detected vibration signals and detected sound values are associated with normal or abnormal handling of sheet media in the media processing apparatus; signaling an error condition to a control system in response to determining that the detected vibration signals and detected sound values are associated with abnormal handling of the sheets.