mhurhangee/ep-ind-claims huggingface dataset:
An anastomosis device comprising: a frame comprising an elongate member defining: a first apposition portion comprising one or more first flange members (502a, 510, 520, 530, 540) configured to contact a first tissue surface and to provide an apposition force against said first tissue surface; a second apposition portion comprising one or more second flange members (504a, 510, 520, 530, 540) configured to contact a second tissue surface and to provide an apposition force against said second tissue surface; and a central portion having a first end and a second end, said central portion comprised of a framework of one or more elongate elements and defining a longitudinal axis, said central portion being disposed between and interconnecting said first apposition portion and said second apposition portion, wherein the central portion includes one or more axial adjustment members extending along the longitudinal axis of the central portion, wherein the axial adjustment members are configured to allow the central portion to elastically extend or contract along the longitudinal axis, characterized in that the central portion further includes one or more cells which interconnect the axial adjustment members. a frame comprising an elongate member defining: a first apposition portion comprising one or more first flange members (502a, 510, 520, 530, 540) configured to contact a first tissue surface and to provide an apposition force against said first tissue surface; a second apposition portion comprising one or more second flange members (504a, 510, 520, 530, 540) configured to contact a second tissue surface and to provide an apposition force against said second tissue surface; and a central portion having a first end and a second end, said central portion comprised of a framework of one or more elongate elements and defining a longitudinal axis, said central portion being disposed between and interconnecting said first apposition portion and said second apposition portion, a first apposition portion comprising one or more first flange members (502a, 510, 520, 530, 540) configured to contact a first tissue surface and to provide an apposition force against said first tissue surface; a second apposition portion comprising one or more second flange members (504a, 510, 520, 530, 540) configured to contact a second tissue surface and to provide an apposition force against said second tissue surface; and a central portion having a first end and a second end, said central portion comprised of a framework of one or more elongate elements and defining a longitudinal axis, said central portion being disposed between and interconnecting said first apposition portion and said second apposition portion, wherein the central portion includes one or more axial adjustment members extending along the longitudinal axis of the central portion, wherein the axial adjustment members are configured to allow the central portion to elastically extend or contract along the longitudinal axis, characterized in that the central portion further includes one or more cells which interconnect the axial adjustment members.
Use of a system to determine the position of an object in real-time within an area in which numerous objects are located, whereby the system has numerous transmitter and receiver modules, whereby each object has a transmitter and receiver module and the transmitter and receiver modules are connected to a wireless network, whereby at least one transmitter and receiver module forms a central anchor node with a defined position and the remaining transmitter and receiver modules form locatable nodes, and use of a base station where data is transferred from the transmitter and receiver modules, whereby each of the transmitter and receiver modules can be switched from being a locatable node to being an additional anchor node with a defined position. The system is characterised in that it is used for detecting accident circumstances for skiers on ski slopes, that the transmitter and receiver modules are carried with skiers, that the location of the carried transmitter and receiver modules is recorded and that after an accident with a skier, using the recorded data, the last contacts of the skier who had the accident with other skiers can be determined through distance measurements after the event.
A process for mixing natural gas with a suitable solvent to yield liquid suited for transport/storage comprising the steps of: cooling natural gas and a solvent to temperatures in a range of -40°C (-40°F) to - 62.2°C (-80°F), combining the natural gas and solvent into a liquid medium of natural gas and solvent, and compressing the liquid medium at pressures in a range of 82.7 bar (1200 psig) to 148.2 bar (2150 psig). cooling natural gas and a solvent to temperatures in a range of -40°C (-40°F) to - 62.2°C (-80°F), combining the natural gas and solvent into a liquid medium of natural gas and solvent, and compressing the liquid medium at pressures in a range of 82.7 bar (1200 psig) to 148.2 bar (2150 psig).
A seal device that seals between a housing and a rotation shaft passing through the housing, the seal device comprising: the housing, the shaft, a floating ring arranged with a gap (h) with respect to the rotation shaft and with a circumferential gap (k) with respect to the housing, and at least one supporting means that contactlessly supports in the circumferential direction, wherein the supporting means includes a first magnet arranged in the housing, the first magnet having magnetic pole faces (14N, 14S) directed in the circumferential direction, and a second magnet arranged in the floating ring, the second magnet having magnetic pole faces (17N, 17S) directed in the circumferential direction, the first magnet and the second magnet are arranged so that the same poles oppose each other, characterized in that the floating ring includes a seal ring, an annular retainer made of a non-magnetic material and the second magnet, the retainer is tightly fitted to an outer periphery of the seal ring, and the second magnet is arranged in an outer periphery of the retainer. the housing, the shaft, a floating ring arranged with a gap (h) with respect to the rotation shaft and with a circumferential gap (k) with respect to the housing, and at least one supporting means that contactlessly supports in the circumferential direction, wherein the supporting means includes a first magnet arranged in the housing, the first magnet having magnetic pole faces (14N, 14S) directed in the circumferential direction, and a second magnet arranged in the floating ring, the second magnet having magnetic pole faces (17N, 17S) directed in the circumferential direction, the first magnet and the second magnet are arranged so that the same poles oppose each other, characterized in that the floating ring includes a seal ring, an annular retainer made of a non-magnetic material and the second magnet, the retainer is tightly fitted to an outer periphery of the seal ring, and the second magnet is arranged in an outer periphery of the retainer.
A method for supporting non-public network, NPN, by a base station, in a wireless communication system, the method comprising: transmitting, to an access and mobility management function, AMF, an initial user equipment, UE, message comprising a closed access group, CAG, identifier list supported by a cell accessed by a UE; receiving, from the AMF, an initial context setup request message comprising access allowance information for CAG cells; determining whether to handover the UE to a target cell based on the access allowance information; transmitting a handover request message comprising the access allowance information to a target base station based on determining to handover the UE to the target cell; and receiving a handover request response message from the target base station, wherein the access allowance information comprises an allowed CAG list of the UE and information of whether the UE is allowed to access non-CAG cells. transmitting, to an access and mobility management function, AMF, an initial user equipment, UE, message comprising a closed access group, CAG, identifier list supported by a cell accessed by a UE; receiving, from the AMF, an initial context setup request message comprising access allowance information for CAG cells; determining whether to handover the UE to a target cell based on the access allowance information; transmitting a handover request message comprising the access allowance information to a target base station based on determining to handover the UE to the target cell; and receiving a handover request response message from the target base station, wherein the access allowance information comprises an allowed CAG list of the UE and information of whether the UE is allowed to access non-CAG cells.
An optical proximity sensor, comprising: - a light emitting device; - a photon detecting device; - a transparent cover; and - an ink layer on the transparent cover, - a polarization selection device (11, 51) arranged to pass only p-polarized light and to block s-polarized light; and characterized in that - a distance between the light emitting device and the photon detecting device and a distance between the light emitting device and the transparent cover are adjusted that an edge of a beam of light emitted from the light emitting device incidents upon the transparent cover at an angle close to the Brewster angle. - a light emitting device; - a photon detecting device; - a transparent cover; and - an ink layer on the transparent cover, - a polarization selection device (11, 51) arranged to pass only p-polarized light and to block s-polarized light; and characterized in that - a distance between the light emitting device and the photon detecting device and a distance between the light emitting device and the transparent cover are adjusted that an edge of a beam of light emitted from the light emitting device incidents upon the transparent cover at an angle close to the Brewster angle.
A method of operating a communications device to transmit packets, the method comprising: storing information defining a plurality of packet transmission initiation intervals (210, 212, 220, 210', 212', 220', 210"), each of the transmission initiation intervals (210, 212, 220, 210', 212', 220', 210") being of a predetermined duration which is longer than an amount of time required to transmit a packet, said transmission initiation intervals (210, 212, 220, 210', 212', 220', 210") corresponding to a recurring broadcast interval (204, 204', 204") including multiple packet transmission opportunities; selecting a subset of the transmission initiation intervals (210, 212, 220, 210', 212', 220', 210") to be associated with said communications device; and restricting initiation of packet transmission to the transmission initiation intervals (210, 212, 220, 210', 212', 220', 210") associated with said communications device, said transmission initiation intervals (210, 212, 220, 210', 212', 220', 210") associated with said communications device being separated from one another in time by at least N transmission initiation intervals (210, 212, 220, 210', 212', 220', 210"), N being a non-zero integer value, wherein the duration of each packet transmission initiation interval (210, 212, 220, 210', 212', 220', 210") includes a packet transmission time period and a null period in which no transmission occurs. storing information defining a plurality of packet transmission initiation intervals (210, 212, 220, 210', 212', 220', 210"), each of the transmission initiation intervals (210, 212, 220, 210', 212', 220', 210") being of a predetermined duration which is longer than an amount of time required to transmit a packet, said transmission initiation intervals (210, 212, 220, 210', 212', 220', 210") corresponding to a recurring broadcast interval (204, 204', 204") including multiple packet transmission opportunities; selecting a subset of the transmission initiation intervals (210, 212, 220, 210', 212', 220', 210") to be associated with said communications device; and restricting initiation of packet transmission to the transmission initiation intervals (210, 212, 220, 210', 212', 220', 210") associated with said communications device, said transmission initiation intervals (210, 212, 220, 210', 212', 220', 210") associated with said communications device being separated from one another in time by at least N transmission initiation intervals (210, 212, 220, 210', 212', 220', 210"), N being a non-zero integer value,
A method for determining the presence of a KRAS mutation in a metastatic colorectal tumor, said method comprising the steps of: (a) determining from a biological sample of a metastatic colorectal tumor-suffering subject the expression level of OLFM4, (b) comparing the obtained expression level with at least one reference expression level, and (c) determining the presence of a KRAS mutation in the said metastatic colorectal tumor from said comparison. (a) determining from a biological sample of a metastatic colorectal tumor-suffering subject the expression level of OLFM4, (b) comparing the obtained expression level with at least one reference expression level, and (c) determining the presence of a KRAS mutation in the said metastatic colorectal tumor from said comparison.
Semiconductor device, in particular being configured for optical, optoelectronic, electronic and/or (photo-)electrochemical applications, comprising - a substrate and at least one nano- or microstructure functional element standing on the substrate and having a core region extending in an upward direction deviating from a substrate plane, characterized in that - the at least one functional element further includes multiple different active regions (22, 22A, 23, 23A, 24 and 24A) being located on different lateral sides of the core region having surface normals being directed in different azimuthal directions but having a common polar angle with reference to the substrate plane, wherein the active regions (22, 22A, 23, 23A, 24 and 24A) have different optical, optoelectronic, electronic and/or or (photo-)electrochemical properties. - a substrate and at least one nano- or microstructure functional element standing on the substrate and having a core region extending in an upward direction deviating from a substrate plane, characterized in that - the at least one functional element further includes multiple different active regions (22, 22A, 23, 23A, 24 and 24A) being located on different lateral sides of the core region having surface normals being directed in different azimuthal directions but having a common polar angle with reference to the substrate plane, wherein the active regions (22, 22A, 23, 23A, 24 and 24A) have different optical, optoelectronic, electronic and/or or (photo-)electrochemical properties.
Method for controlling a high-lift device or a flight control surface of an air- or spacecraft comprising the steps of: receiving, at at least one primary control unit (2a, 2b), a command signal from a commander unit via a data network (4a, 4b); providing a primary control signal to the one local control unit of a first one of actuators (5a, 5b) of the high-lift device or flight control surface on every wing via the data network (4a, 4b), wherein the primary control signal depends on the received command signal, only the first actuators (5a, 5b) on every wing comprising a network interface for direct connection to the data network (4a, 4b), and comprising in addition discrete and/or analogue interfaces for connection to other actuators (5a', 5b') on the same wing and to one or more sensors (6a, 6b) of the high-lift device or flight control surface on the same wing; receiving, at the local control unit, a sensor signal from the one or more sensors on the same wing via the discrete and/or analogue interface; and providing from the local control unit a secondary control signal to one or more of the actuators (5a, 5b, 5a', 5b', 6a, 6b) on the same wing, wherein the secondary control signal depends on the received sensor signal and the primary control signal. receiving, at at least one primary control unit (2a, 2b), a command signal from a commander unit via a data network (4a, 4b); providing a primary control signal to the one local control unit of a first one of actuators (5a, 5b) of the high-lift device or flight control surface on every wing via the data network (4a, 4b), wherein the primary control signal depends on the received command signal, only the first actuators (5a, 5b) on every wing comprising a network interface for direct connection to the data network (4a, 4b), and comprising in addition discrete and/or analogue interfaces for connection to other actuators (5a', 5b') on the same wing and to one or more sensors (6a, 6b) of the high-lift device or flight control surface on the same wing; receiving, at the local control unit, a sensor signal from the one or more sensors on the same wing via the discrete and/or analogue interface; and providing from the local control unit a secondary control signal to one or more of the actuators (5a, 5b, 5a', 5b', 6a, 6b) on the same wing, wherein the secondary control signal depends on the received sensor signal and the primary control signal.
A method for obtaining a classifier for determining whether a user equipment is indoor or outdoor, the method comprising: obtaining a training set, wherein each element of the training set comprises a map tile, a first set of features from radio access network metrics associated with a location within the map tile, a second set of features from core network metrics associated with the location, and a truth value whether the location is indoor or outdoor, wherein the map tile is identified for the location from a map imagery set; and training a classifier using the training set, wherein the classifier comprises multiple neural networks, wherein the classifier further comprises one or more convolutional neural networks and combination logic between the multiple neural networks and the one or more convolutional neural networks, wherein the first set of features is fed to a first neural network of the multiple neural networks to determine a first probability, the second set of features is fed to a second neural network of the multiple neural networks to determine a second probability, and the map tile is fed to one of the one or more convolutional neural networks to produce a classification of the map tile, and wherein the first probability, the second probability, and the classification of the map tile are fed to a further neural network to produce a classification of whether the location is indoor or outdoor. obtaining a training set, wherein each element of the training set comprises a map tile, a first set of features from radio access network metrics associated with a location within the map tile, a second set of features from core network metrics associated with the location, and a truth value whether the location is indoor or outdoor, wherein the map tile is identified for the location from a map imagery set; and training a classifier using the training set, wherein the classifier comprises multiple neural networks, wherein the classifier further comprises one or more convolutional neural networks and combination logic between the multiple neural networks and the one or more convolutional neural networks, wherein the first set of features is fed to a first neural network of the multiple neural networks to determine a first probability, the second set of features is fed to a second neural network of the multiple neural networks to determine a second probability, and the map tile is fed to one of the one or more convolutional neural networks to produce a classification of the map tile, and wherein the first probability, the second probability, and the classification of the map tile are fed to a further neural network to produce a classification of whether the location is indoor or outdoor.
A method for controlling the signal transmission of a network access point, comprising: detecting, at the access point, whether there is a terminal that requests to establish a wireless connection with the access point; if there is not the terminal, switching the beacon frame sending function of the access point to an off state, and maintaining reception of probe request frames at the access point; and judging whether a wireless connection has been ever established with a sending terminal of the probe request frames when the probe request frames are received; wherein if the wireless connection has been established, switching the sending function of the access point into an on state; and wherein if the wireless connection has not been established, recording the accumulated number of probe request frames received from the sending terminal and switching the sending function into the on state when the accumulated number is greater than or equal to a preset number. detecting, at the access point, whether there is a terminal that requests to establish a wireless connection with the access point; if there is not the terminal, switching the beacon frame sending function of the access point to an off state, and maintaining reception of probe request frames at the access point; and judging whether a wireless connection has been ever established with a sending terminal of the probe request frames when the probe request frames are received; wherein if the wireless connection has been established, switching the sending function of the access point into an on state; and wherein if the wireless connection has not been established, recording the accumulated number of probe request frames received from the sending terminal and switching the sending function into the on state when the accumulated number is greater than or equal to a preset number.
A method for controlling power consumption, the method comprising: providing a buffer to receive an external clock signal and to supply an internal clock signal; characterised in that the method further comprising: f generating a low level of a buffer enable signal based on a low level of a clock enable signal and a high level of an internal clock signal, powering down the buffer to a low power consumption mode based solely on the low level of said buffer enable signal; and powering up said buffer to a higher power consumption mode based solely on a high level of said buffer enable signal, wherein said high level is generated based on counting a predetermined number of toggles of the external clock signal. providing a buffer to receive an external clock signal and to supply an internal clock signal; characterised in that the method further comprising: f generating a low level of a buffer enable signal based on a low level of a clock enable signal and a high level of an internal clock signal, powering down the buffer to a low power consumption mode based solely on the low level of said buffer enable signal; and powering up said buffer to a higher power consumption mode based solely on a high level of said buffer enable signal, wherein said high level is generated based on counting a predetermined number of toggles of the external clock signal.
A laminated structure comprising a backing plate and an indium target, characterized in that the backing plate; an indium-tin solder material; and the indium target are laminated in this order, wherein a concentration of tin in a 2.5 to 3.0 mm thickness range of the indium target from a indium-tin solder material side surface is 5 wtppm or less.