mhurhangee/ep-ind-claims huggingface dataset:
A method for presenting setting and notification information in a user device, the method comprising: arranging, by one or more processors based upon a display configuration for a display apparatus of the user device, a group of selectable settings for presentation in a first region of a user interface; upon selection of one of the group of selectable settings by a user, expanding, by the one or more processors, the selected setting into a panel (702, 722, 742, 762, 772) in the first region, wherein the panel includes a settings section (704, 774) with a user selectable option for modifying the selected setting, and varying a size of the first region in accordance with the settings presented in the first region; arranging, by the one or more processors, a user notification area for presentation in a second region of the user interface, wherein the first and second regions do not overlap; identifying a received user notification (420, 422); adding the received user notification to the user notification area, and varying the size of the first region and a size of the second region in accordance with a number of notifications in the user notification area; and configuring the user interface for display on the display apparatus. arranging, by one or more processors based upon a display configuration for a display apparatus of the user device, a group of selectable settings for presentation in a first region of a user interface; upon selection of one of the group of selectable settings by a user, expanding, by the one or more processors, the selected setting into a panel (702, 722, 742, 762, 772) in the first region, wherein the panel includes a settings section (704, 774) with a user selectable option for modifying the selected setting, and varying a size of the first region in accordance with the settings presented in the first region; arranging, by the one or more processors, a user notification area for presentation in a second region of the user interface, wherein the first and second regions do not overlap; identifying a received user notification (420, 422); adding the received user notification to the user notification area, and varying the size of the first region and a size of the second region in accordance with a number of notifications in the user notification area; and configuring the user interface for display on the display apparatus.
A method for assisting handover of a user terminal's, UT's, communication session from a first radio access point, AP1, to a second radio access point, AP2, in a radio access network, said method to be carried out by said AP1 comprising the following steps: - receiving a handover intention notify message comprising a session identifier identifying said session and indicating that said UT intends to perform a session handover, - assigning said session a buffer memory space in a memory of said AP1, - buffering downlink data packets addressed to said UT in said buffer memory as a response on receiving said handover intention notify message, characterized by the step of - continuing transmission of downlink session packets to said UT, and simultaneously forwarding duplicate packets to AP2, - receiving a handover intention notify message comprising a session identifier identifying said session and indicating that said UT intends to perform a session handover, - assigning said session a buffer memory space in a memory of said AP1, - buffering downlink data packets addressed to said UT in said buffer memory as a response on receiving said handover intention notify message, - continuing transmission of downlink session packets to said UT, and simultaneously forwarding duplicate packets to AP2,
Corner seal for watertight sealing of a corner of a building construction, such as for instance between a recess and a surrounding floor or between a floor and two walls at right angles to each other, which corner seal comprises: - a first membrane section which is deformed by heat, in a bottom, at least two upright and mutually adjacent walls (3, 4), and a horizontal flange which extends along an upper edge of the at least two upright walls (3, 4); characterized by - a second membrane section (6; 11, 12) which extends parallel to and along the two adjacent, upright walls (3, 4) and is attached thereto. - a first membrane section which is deformed by heat, in a bottom, at least two upright and mutually adjacent walls (3, 4), and a horizontal flange which extends along an upper edge of the at least two upright walls (3, 4); characterized by - a second membrane section (6; 11, 12) which extends parallel to and along the two adjacent, upright walls (3, 4) and is attached thereto.
A pitot tube comprising: a wall extending longitudinally along an axis and transversely to the walls to connect a base, wherein the wall defines: an inlet aperture at a longitudinal end of the wall; an interior cavity wherein the inlet aperture places the interior cavity in communication with a space exterior to the wall; a passage extending through and perpendicular to the wall having an outlet along an exterior surface of the wall that places the interior cavity in communication with the space exterior to the wall; and characterized by further comprising an augmenting feature that includes a protrusion extending from the wall to redirect a fluid flowing along the wall and the axis upstream of the outlet and thereby reduce a static pressure at the outlet of the passage. a wall extending longitudinally along an axis and transversely to the walls to connect a base, wherein the wall defines: an inlet aperture at a longitudinal end of the wall; an interior cavity wherein the inlet aperture places the interior cavity in communication with a space exterior to the wall; a passage extending through and perpendicular to the wall having an outlet along an exterior surface of the wall that places the interior cavity in communication with the space exterior to the wall; and characterized by further comprising an augmenting feature that includes a protrusion extending from the wall to redirect a fluid flowing along the wall and the axis upstream of the outlet and thereby reduce a static pressure at the outlet of the passage. an inlet aperture at a longitudinal end of the wall; an interior cavity wherein the inlet aperture places the interior cavity in communication with a space exterior to the wall; a passage extending through and perpendicular to the wall having an outlet along an exterior surface of the wall that places the interior cavity in communication with the space exterior to the wall; and characterized by further comprising an augmenting feature that includes a protrusion extending from the wall to redirect a fluid flowing along the wall and the axis upstream of the outlet and thereby reduce a static pressure at the outlet of the passage.
A gas turbine engine, comprising: a conically shaped fan hub, the outer surface of the hub having at least two different Gaussian curvatures; a plurality of attachment features located on the outer surface of the hub, wherein at least some of the plurality of attachment features extend radially away from the outer surface and are axially aligned with each other and at least some of the plurality of attachment features extending radially away from the outer surface and are off set from each other; a plurality of fan blades each having a plurality of connecting members secured to the fan hub via the plurality of attachment features, each of the plurality of attachment features have an opening configured to receive a portion of a pin for securing the plurality of blades to the fan hub; and wherein at least some of the plurality of attachment features are located on a forward leading edge of the hub and extend axially away from the leading edge. a conically shaped fan hub, the outer surface of the hub having at least two different Gaussian curvatures; a plurality of attachment features located on the outer surface of the hub, wherein at least some of the plurality of attachment features extend radially away from the outer surface and are axially aligned with each other and at least some of the plurality of attachment features extending radially away from the outer surface and are off set from each other; a plurality of fan blades each having a plurality of connecting members secured to the fan hub via the plurality of attachment features, each of the plurality of attachment features have an opening configured to receive a portion of a pin for securing the plurality of blades to the fan hub; and wherein at least some of the plurality of attachment features are located on a forward leading edge of the hub and extend axially away from the leading edge.
A method for generating genetically modified naive T cells suitable for adoptive cell therapy, wherein the cells are isolated from a sample, and the sample was obtained from blood, bone marrow, a leukopheresis sample, or a peripheral blood mononuclear cell sample; the method comprising the steps of: enriching the sample for CD62L + T cells; and isolating p-glycoprotein positive (Pgp +) T cells from the enriched CD62L + T cells, so as to obtain a fraction enriched in Pgp-positive T cells, and genetically modifying the isolated Pgp + T cells to express at least one chimeric antigen receptor, T cell receptor, synthetic immune receptor, or chimeric T cell receptor. enriching the sample for CD62L + T cells; and isolating p-glycoprotein positive (Pgp +) T cells from the enriched CD62L + T cells, so as to obtain a fraction enriched in Pgp-positive T cells, and genetically modifying the isolated Pgp + T cells to express at least one chimeric antigen receptor, T cell receptor, synthetic immune receptor, or chimeric T cell receptor.
A method for producing selenoneine, comprising the step of applying histidine and a selenium compound to a transformant, wherein the transformant of genus Aspergillus is produced by using as a host organism a microorganism of the genus Aspergillus selected from the group consisting of Aspergillus sojae, Aspergillus oryzae, Aspergillus niger, Aspergillus tamarii, Aspergillus awamori, Aspergillus usamii, Aspergillus kawachii, and Aspergillus saitoi; and wherein the transformant has a gene encoding the enzyme introduced as a foreign gene therein and overexpresses the introduced gene to obtain selenoneine: An enzyme that is encoded by a gene selected from the group consisting of a gene having a base sequence with at least (≥) 85% identity to a base sequence of SEQ ID NO: 1, and a gene having a base sequence with at least (≥) 85% identity to a base sequence of SEQ ID NO: 23 in the sequence listing, or the enzyme is an enzyme selected from the group consisting of an enzyme having an amino acid sequence with at least (≥) 85% identity to an amino acid sequence of SEQ ID NO: 4, and an enzyme having an amino acid sequence with at least (≥) 85% identity to an amino acid sequence of SEQ ID NO: 24 in the sequence listing; and that catalyzes a reaction in which hercynylselenocysteine shown in the formula below is produced from histidine and selenocysteine in the presence of S-adenosylmethionine and iron: wherein the transformant of genus Aspergillus is produced by using as a host organism a microorganism of the genus Aspergillus selected from the group consisting of Aspergillus sojae, Aspergillus oryzae, Aspergillus niger, Aspergillus tamarii, Aspergillus awamori, Aspergillus usamii, Aspergillus kawachii, and Aspergillus saitoi; and wherein the transformant has a gene encoding the enzyme introduced as a foreign gene therein and overexpresses the introduced gene to obtain selenoneine: An enzyme that is encoded by a gene selected from the group consisting of a gene having a base sequence with at least (≥) 85% identity to a base sequence of SEQ ID NO: 1, and a gene having a base sequence with at least (≥) 85% identity to a base sequence of SEQ ID NO: 23 in the sequence listing, or the enzyme is an enzyme selected from the group consisting of an enzyme having an amino acid sequence with at least (≥) 85% identity to an amino acid sequence of SEQ ID NO: 4, and an enzyme having an amino acid sequence with at least (≥) 85% identity to an amino acid sequence of SEQ ID NO: 24 in the sequence listing; and that catalyzes a reaction in which hercynylselenocysteine shown in the formula below is produced from histidine and selenocysteine in the presence of S-adenosylmethionine and iron:
Method for magnetic resonance imaging in an examination region of an examination object by means of a magnetic resonance device which comprises a shim unit, wherein the shim unit comprises a first shim channel volume having at least one first shim channel and a second shim channel volume having at least one second shim channel, comprising the following method steps: - dividing the examination region into a plurality of sections, - ascertaining a plurality of first shim parameter sets for the at least one first shim channel, wherein one first shim parameter set respectively of the plurality of first shim parameter sets is ascertained for each of the plurality of sections, wherein, before ascertaining the plurality of first shim parameter sets, a first B0 field map is acquired, wherein the plurality of first shim parameter sets is ascertained using the first B0 field map, - ascertaining a second shim parameter set for the at least one second shim channel by taking into account the plurality of first ascertained shim parameter sets, - acquiring magnetic resonance image data of the examination region of the examination object, wherein, before acquiring the magnetic resonance image data, the at least one second shim channel is adjusted using the second shim parameter set and the at least one first shim channel is adjusted for acquiring the magnetic resonance image data from a specific section of the plurality of sections using a first shim parameter set ascertained for the specific section, characterised in that a second B0 field map is calculated using the first B0 field map and the plurality of first shim parameter sets, and the plurality of first shim parameter sets is taken into account when ascertaining the second shim parameter set such that the second shim parameter set is ascertained using the second B0 field map. - dividing the examination region into a plurality of sections, - ascertaining a plurality of first shim parameter sets for the at least one first shim channel, wherein one first shim parameter set respectively of the plurality of first shim parameter sets is ascertained for each of the plurality of sections, wherein, before ascertaining the plurality of first shim parameter sets, a first B0 field map is acquired, wherein the plurality of first shim parameter sets is ascertained using the first B0 field map, - ascertaining a second shim parameter set for the at least one second shim channel by taking into account the plurality of first ascertained shim parameter sets, - acquiring magnetic resonance image data of the examination region of the examination object, wherein, before acquiring the magnetic resonance image data, the at least one second shim channel is adjusted using the second shim parameter set and the at least one first shim channel is adjusted for acquiring the magnetic resonance image data from a specific section of the plurality of sections using a first shim parameter set ascertained for the specific section,
A method, executed by a computer, comprising: detecting a first feature in a pair of corresponding images of a scene captured by a first optical sensor and a second optical sensor; determining a phase detection autofocus, PDAF, depth value of the first feature based on at least one image from the pair of corresponding images; comparing the PDAF depth value to a threshold value; and in response to determining that the PDAF depth value exceeds the threshold value, determining a stereo vision depth value of the first feature based on the pair of corresponding images. detecting a first feature in a pair of corresponding images of a scene captured by a first optical sensor and a second optical sensor; determining a phase detection autofocus, PDAF, depth value of the first feature based on at least one image from the pair of corresponding images; comparing the PDAF depth value to a threshold value; and in response to determining that the PDAF depth value exceeds the threshold value, determining a stereo vision depth value of the first feature based on the pair of corresponding images.
A method of transmitting an uplink scheduling request in a mobile communication system, the method comprising the steps of: transmitting, by a terminal, the uplink scheduling request to a radio resource controlling node to thereby request the radio resource controlling node to allocate radio resources for transmitting uplink data or uplink control signals, if the uplink data or the uplink control signals are generated from an upper layer; receiving, by the terminal, scheduling information from the radio resource controlling node over a resource grant channel after transmitting the uplink scheduling request, and determining whether resource allocation information is included in the scheduling information; comparing, by the terminal, a lowest priority notified from a radio resource controlling node with a highest priority among service priorities corresponding to the uplink data or the uplink control signals, if the resource allocation information is not included in the scheduling information; and retransmitting, by the terminal, the uplink scheduling request to the radio resource controlling node, when the highest priority is greater than or equal to the lowest priority notified from the radio resource controlling node; wherein the lowest priority is the lowest one of priorities corresponding to uplink data or uplink control signals for which radio resources have been successfully allocated from among uplink scheduling requests that the radio resource controlling node has previously received from terminals within a corresponding cell. transmitting, by a terminal, the uplink scheduling request to a radio resource controlling node to thereby request the radio resource controlling node to allocate radio resources for transmitting uplink data or uplink control signals, if the uplink data or the uplink control signals are generated from an upper layer; receiving, by the terminal, scheduling information from the radio resource controlling node over a resource grant channel after transmitting the uplink scheduling request, and determining whether resource allocation information is included in the scheduling information; comparing, by the terminal, a lowest priority notified from a radio resource controlling node with a highest priority among service priorities corresponding to the uplink data or the uplink control signals, if the resource allocation information is not included in the scheduling information; and retransmitting, by the terminal, the uplink scheduling request to the radio resource controlling node, when the highest priority is greater than or equal to the lowest priority notified from the radio resource controlling node; wherein the lowest priority is the lowest one of priorities corresponding to uplink data or uplink control signals for which radio resources have been successfully allocated from among uplink scheduling requests that the radio resource controlling node has previously received from terminals within a corresponding cell.
An article tracking system comprising: a. a beacon associated with an article for emitting a plurality of short-range radio signals, each short-range radio signal including a beacon identifier and a beacon transmission power; b. a plurality of relaying devices each having a known location associated with a waypoint in a journey of the article and each for detecting the short-range radio signals, calculating a received signal strength indicator (RSSI) for each detected short-range radio signal, converting each detected short-range radio signal to a relay signal, and transmitting each of the relay signals, the relay signals including a unique relaying device identifier and RSSI information; c. timestamping means for attaching a time stamp to each relay signal; and d. a tracking device for continually receiving the relay signals from each relaying device, comparing a characteristic of the received relay signals from each relaying device to determine to which of the plurality of relaying devices the beacon is closest, and storing the time stamp, beacon identifier and unique relaying device identifier of the determined closest relaying device, wherein the characteristic of the received relaying signals from each relaying device includes a calculated RSSI, and wherein the tracking device determines to which of the plurality of relaying devices a beacon is closest based on a comparison of an average calculated RSSI for a plurality of relay signals associated with each relaying device received during a data gathering time interval. a. a beacon associated with an article for emitting a plurality of short-range radio signals, each short-range radio signal including a beacon identifier and a beacon transmission power; b. a plurality of relaying devices each having a known location associated with a waypoint in a journey of the article and each for detecting the short-range radio signals, calculating a received signal strength indicator (RSSI) for each detected short-range radio signal, converting each detected short-range radio signal to a relay signal, and transmitting each of the relay signals, the relay signals including a unique relaying device identifier and RSSI information; c. timestamping means for attaching a time stamp to each relay signal; and d. a tracking device for continually receiving the relay signals from each relaying device, comparing a characteristic of the received relay signals from each relaying device to determine to which of the plurality of relaying devices the beacon is closest, and storing the time stamp, beacon identifier and unique relaying device identifier of the determined closest relaying device,