mhurhangee/ep-ind-claims huggingface dataset:
A communication control apparatus comprising: a communication control unit configured to control radio communication in a long term evolution, LTE, communication system performed by a terminal apparatus of a plurality of terminal apparatuses on a component carrier having a basic bandwidth, wherein the communication control unit is configured to symmetrically set an extension band that is added to the component carrier in a symmetric way in each one of excess frequency bands on an upper side and a lower side of the component carrier, wherein the communication control unit is configured to assign a resource on which a synchronization signal for allowing the terminal apparatus to be synchronized with both of the component carrier and the extension band is transmitted, in the center of the component carrier; characterized in that the communication control unit is configured to control the radio communication in a resource block unit and to set a bandwidth of the extension band to an integer multiple of a size of a resource block; wherein the communication control unit is configured to use an index based on the number of the resource blocks corresponding to the bandwidth of the extension band, in particular on one side of the component carrier, to notify the terminal apparatus of the setting of the extension band. a communication control unit configured to control radio communication in a long term evolution, LTE, communication system performed by a terminal apparatus of a plurality of terminal apparatuses on a component carrier having a basic bandwidth, wherein the communication control unit is configured to symmetrically set an extension band that is added to the component carrier in a symmetric way in each one of excess frequency bands on an upper side and a lower side of the component carrier, wherein the communication control unit is configured to assign a resource on which a synchronization signal for allowing the terminal apparatus to be synchronized with both of the component carrier and the extension band is transmitted, in the center of the component carrier; characterized in that the communication control unit is configured to control the radio communication in a resource block unit and to set a bandwidth of the extension band to an integer multiple of a size of a resource block; wherein the communication control unit is configured to use an index based on the number of the resource blocks corresponding to the bandwidth of the extension band, in particular on one side of the component carrier, to notify the terminal apparatus of the setting of the extension band.
A portable X-ray imaging system, comprising: a base unit having a carriage frame, wherein the base unit supports an X-ray source, and wherein the X-ray source is moveable between a transport position and an imaging position; at least one front wheel mounted to the carriage frame; a rear wheel assembly mounted to the carriage frame, the rear wheel assembly comprising a pair of rear wheels and at least one battery driven drive motor for driving the rear wheels in rotation to propel the base unit; a pivot coupling between the carriage frame and the rear wheel assembly; and a suspension system coupled to the carriage frame and the rear wheel assembly and configured to permit flexible movement of the carriage frame and the rear wheel assembly with respect to one another; characterised in that the X-ray source being in the imaging position causes a decreased load to be exerted on the carriage frame compared to the X-ray source being in the transport position; the pivot coupling is configured to yield to relative movement of the carriage frame and the rear wheel assembly when the load on the carriage frame decreases or increases; the suspension system comprises a spring arranged to be transitioned, by the relative movement of the carriage frame and the rear wheel assembly, between a relatively uncompressed state when there is a decreased load on the carriage frame and a relatively compressed state when there is an increased load on the carriage frame; and in its uncompressed state, the spring rests against a stop thereby limiting movement of the carriage frame with respect to the rear wheel assembly. a base unit having a carriage frame, wherein the base unit supports an X-ray source, and wherein the X-ray source is moveable between a transport position and an imaging position; at least one front wheel mounted to the carriage frame; a rear wheel assembly mounted to the carriage frame, the rear wheel assembly comprising a pair of rear wheels and at least one battery driven drive motor for driving the rear wheels in rotation to propel the base unit; a pivot coupling between the carriage frame and the rear wheel assembly; and a suspension system coupled to the carriage frame and the rear wheel assembly and configured to permit flexible movement of the carriage frame and the rear wheel assembly with respect to one another; characterised in that the X-ray source being in the imaging position causes a decreased load to be exerted on the carriage frame compared to the X-ray source being in the transport position; the pivot coupling is configured to yield to relative movement of the carriage frame and the rear wheel assembly when the load on the carriage frame decreases or increases; the suspension system comprises a spring arranged to be transitioned, by the relative movement of the carriage frame and the rear wheel assembly, between a relatively uncompressed state when there is a decreased load on the carriage frame and a relatively compressed state when there is an increased load on the carriage frame; and in its uncompressed state, the spring rests against a stop thereby limiting movement of the carriage frame with respect to the rear wheel assembly.
A system for informing an occupant of a vehicle of upcoming acceleration or deceleration of the vehicle using haptic feedback, the system comprising: - a seat motor comprising a plurality of actuators (22, 24), that is configured to be disposed within a seat of the vehicle and to provide haptic feedback to the occupant, - a driving-assistance system, and - a control unit configured to receive acceleration information from the driving-assistance system about upcoming acceleration or deceleration of the vehicle and to control the seat motor, wherein the control unit is configured to sequentially actuate the actuators (22, 24) of the seat motor with a pattern that is determined on the basis of the acceleration information received by the control unit to provide haptic feedback to the occupant prior to the acceleration or deceleration of the vehicle, the system comprising a plurality of rows of actuators (22, 24), wherein the control unit is configured to actuate successively each row in sequence, a pattern comprising one actuation of each of the rows, characterized in that the acceleration information received by the control unit from the driving-assistance system has a direction and a magnitude, and in that a direction of actuation of the rows when the acceleration information is positive acceleration is opposite to a direction of actuation of the rows when the acceleration information is negative acceleration. - a seat motor comprising a plurality of actuators (22, 24), that is configured to be disposed within a seat of the vehicle and to provide haptic feedback to the occupant, - a driving-assistance system, and - a control unit configured to receive acceleration information from the driving-assistance system about upcoming acceleration or deceleration of the vehicle and to control the seat motor, wherein the control unit is configured to sequentially actuate the actuators (22, 24) of the seat motor with a pattern that is determined on the basis of the acceleration information received by the control unit to provide haptic feedback to the occupant prior to the acceleration or deceleration of the vehicle, the system comprising a plurality of rows of actuators (22, 24), wherein the control unit is configured to actuate successively each row in sequence, a pattern comprising one actuation of each of the rows, characterized in that the acceleration information received by the control unit from the driving-assistance system has a direction and a magnitude, and in that a direction of actuation of the rows when the acceleration information is positive acceleration is opposite to a direction of actuation of the rows when the acceleration information is negative acceleration.
Radiological imaging device defining a longitudinal axis and comprising - a gantry suitable to perform said radiological imaging and defining an area of analysis; - a robotic arm suitable to move a medical instrument with respect to said area of analysis; - a bearing structure supporting said gantry and comprising - a guide defining a translation axis substantially parallel to said longitudinal axis; and - at least one carriage (44, 44a, 44b) suitable to move said gantry and said robotic arm along said translation axis. wherein - said gantry is connected to said at least one carriage (44, 44a, 44b) and comprises a source suitable to emit radiation, a detector suitable to receive said radiation after said radiation has passed through said area of analysis and a rotor supporting at least said source and said detector, characterised in that said gantry further comprises a stator supporting said rotor cantilevered; and a rotation member to rotate said rotor with respect to said stator; and that said at least one robotic arm is connected to said rotor. - a gantry suitable to perform said radiological imaging and defining an area of analysis; - a robotic arm suitable to move a medical instrument with respect to said area of analysis; - a bearing structure supporting said gantry and comprising - a guide defining a translation axis substantially parallel to said longitudinal axis; and - at least one carriage (44, 44a, 44b) suitable to move said gantry and said robotic arm along said translation axis. - a guide defining a translation axis substantially parallel to said longitudinal axis; and - at least one carriage (44, 44a, 44b) suitable to move said gantry and said robotic arm along said translation axis. - said gantry is connected to said at least one carriage (44, 44a, 44b) and comprises a source suitable to emit radiation, a detector suitable to receive said radiation after said radiation has passed through said area of analysis and a rotor supporting at least said source and said detector, characterised in that said gantry further comprises a stator supporting said rotor cantilevered; and a rotation member to rotate said rotor with respect to said stator; and
A modular bar and shop space for an aircraft galley complex, comprising: a monument installable in a passenger cabin of an aircraft, the monument comprising: an upper portion and at least one upper panel, the upper portion disposed behind the at least one upper panel, the upper portion including at least one temperature-controlled compartment (602, 606); and a lower portion and at least one lower panel, the lower portion beneath the upper portion and disposed behind the at least one lower panel, the lower portion including one or more of storage shelving and a storage receptacle; the monument having an undeployed state corresponding to a vertical orientation of the upper panel, and capable of being transitioned from the undeployed state to a deployed state by deploying the lower portion forward into a galley space, and the upper panel configured to transition with the deploying lower portion into a horizontal orientation atop the lower portion, the horizontal orientation corresponding to the deployed state of the monument. a monument installable in a passenger cabin of an aircraft, the monument comprising: an upper portion and at least one upper panel, the upper portion disposed behind the at least one upper panel, the upper portion including at least one temperature-controlled compartment (602, 606); and a lower portion and at least one lower panel, the lower portion beneath the upper portion and disposed behind the at least one lower panel, the lower portion including one or more of storage shelving and a storage receptacle; an upper portion and at least one upper panel, the upper portion disposed behind the at least one upper panel, the upper portion including at least one temperature-controlled compartment (602, 606); and a lower portion and at least one lower panel, the lower portion beneath the upper portion and disposed behind the at least one lower panel, the lower portion including one or more of storage shelving and a storage receptacle; the monument having an undeployed state corresponding to a vertical orientation of the upper panel, and capable of being transitioned from the undeployed state to a deployed state by deploying the lower portion forward into a galley space, and the upper panel configured to transition with the deploying lower portion into a horizontal orientation atop the lower portion, the horizontal orientation corresponding to the deployed state of the monument.
A sound generator, configured to emit sound, comprising a rigid element enclosing a plurality of air compartments, wherein the generator is provided with at least one actuator, configured to actuate the rigid element for the generation of the sound, wherein the one or more actuators are configured to drive the rigid element to perform a piston type of movement during operation, in transversal directions with respect to the front and back sides (F, B) of the element, wherein the rigid element has a front side that is closed, characterized in that the rigid element has a back side comprising apertures..
A method for providing real-time tire pressure information, the method comprising: collecting input values from one or more sensors (112, 114, 116, 118), the values corresponding to each of a contained tire air temperature, a contained tire inflation pressure, and an ambient temperature associated with a tire mounted on a vehicle; determining an effective tire inflation pressure based on the generated signals and further at least on a calculated moving average of the ambient temperature (706, 707); and generating real-time notifications associated with the determined effective tire inflation pressure to a specified user interface via a communications network, characterized by providing, for at least one of the one or more sensors, a tire inflation pressure sensor configured to generate event-based signals corresponding to detected changes per unit pressure. collecting input values from one or more sensors (112, 114, 116, 118), the values corresponding to each of a contained tire air temperature, a contained tire inflation pressure, and an ambient temperature associated with a tire mounted on a vehicle; determining an effective tire inflation pressure based on the generated signals and further at least on a calculated moving average of the ambient temperature (706, 707); and generating real-time notifications associated with the determined effective tire inflation pressure to a specified user interface via a communications network, characterized by providing, for at least one of the one or more sensors, a tire inflation pressure sensor configured to generate event-based signals corresponding to detected changes per unit pressure.
A semiconductor device comprising: a first electrode formed on a substrate, the first electrode being configured to be at a first electrical potential; a second electrode formed on the first electrode, the second electrode including a signal wiring electrode part configured to transmit a signal and a planar electrode part with a prescribed area; and a first insulating layer formed between the first electrode and the second electrode, and characterized in that a shape of the part of the first electrode that is covered by the planar electrode part is made into a slitted shape such that a longitudinal direction of the slits is parallel to a direction in which the signal proceeds in the signal wiring electrode part. a first electrode formed on a substrate, the first electrode being configured to be at a first electrical potential; a second electrode formed on the first electrode, the second electrode including a signal wiring electrode part configured to transmit a signal and a planar electrode part with a prescribed area; and a first insulating layer formed between the first electrode and the second electrode, and characterized in that a shape of the part of the first electrode that is covered by the planar electrode part is made into a slitted shape such that a longitudinal direction of the slits is parallel to a direction in which the signal proceeds in the signal wiring electrode part.
A method for monitoring the power consumption of an electrical consumer by means of a controllable switching element, the electrical consumer comprising a capacitive load, the controllable switching element and the electrical consumer being connected in series, the current flowing through the electrical consumer being measured, the voltage drop across the electrical consumer being measured, and the change over time of the voltage drop across the electrical consumer being measured, characterized in that, a permissible operating current level is calculated from the voltage drop across the electrical consumer and from a prescribed maximum value for the power consumption of the electrical consumer; a charging current level of the capacitive load is calculated from the change over time of the voltage drop across the electrical consumer; a permissible instantaneous current level is calculated using the permissible operating current level and the charging current level; the permissible instantaneous current level is compared with the level of the current flowing through the consumer and the electrical resistance of the switching element is increased if the level of the current flowing through the electrical consumer is greater than the permissible instantaneous current level.
A medical device for implant delivery, comprising: an elongate sleeve, a plurality of apertures formed in the sleeve adjacent a distal end; a plurality of filaments, each filament received within the sleeve from a proximal end, passing out of the distal end, looping over said distal end of the sleeve, passing through one of the apertures and through the sleeve to a proximal end; and an elastic self expanding stent frame comprising a plurality of struts each strut including a proximal aperture; wherein each filament passes through one of said proximal apertures and runs along a length of the strut, wherein the medical device is adapted for controlling expansion and contraction of the stent frame by varying the position and/or tension applied to the the filaments. an elongate sleeve, a plurality of apertures formed in the sleeve adjacent a distal end; a plurality of filaments, each filament received within the sleeve from a proximal end, passing out of the distal end, looping over said distal end of the sleeve, passing through one of the apertures and through the sleeve to a proximal end; and an elastic self expanding stent frame comprising a plurality of struts each strut including a proximal aperture; wherein each filament passes through one of said proximal apertures and runs along a length of the strut, wherein the medical device is adapted for controlling expansion and contraction of the stent frame by varying the position and/or tension applied to the the filaments.
A switch, comprising: a determining mechanism configured to determine an internal multicast group identifier, wherein the internal multicast group identifier is based on a source address associated with a multicast packet, wherein the internal multicast group identifier is based on a multicast address associated with the multicast packet, and wherein the internal multicast group identifier is based on a multicast tree identifier field associated with the multicast packet; and a forwarding mechanism configured to forward the multicast packet based on the internal multicast group identifier by: determining a set of egress ports based on the internal multicast group identifier; and sending at least one copy of the multicast packet through each port in the set of egress ports. a determining mechanism configured to determine an internal multicast group identifier, wherein the internal multicast group identifier is based on a source address associated with a multicast packet, wherein the internal multicast group identifier is based on a multicast address associated with the multicast packet, and wherein the internal multicast group identifier is based on a multicast tree identifier field associated with the multicast packet; and a forwarding mechanism configured to forward the multicast packet based on the internal multicast group identifier by: determining a set of egress ports based on the internal multicast group identifier; and sending at least one copy of the multicast packet through each port in the set of egress ports. determining a set of egress ports based on the internal multicast group identifier; and sending at least one copy of the multicast packet through each port in the set of egress ports.
A compound comprising at least one carrier moiety associated with a plurality of CT imaging moieties, and with at least one enzyme interacting moiety, wherein the at least one carrier moiety is selected from a a polymer, an oligomer and a dendrimer; wherein the plurality of CT imaging moieties are selected from iodine-based moieties and gold-based moieties, and wherein the at least one enzyme interacting moiety is an acyloxymethyl ketone (AOMK) moiety; wherein the compound is: a compound wherein the at least one carrier is a dendrimer associated with: (a) the plurality of CT imaging moieties, at least a portion of said plurality of CT imaging moieties being and (b) the at least one enzyme interacting moiety; wherein the at least one dendrimer is a PAMAM selected from PAMAM (G-1), PAMAM (G-2), PAMAM (G-3), PAMAM (G-4) and PAMAM (G-5) OR a compound wherein the gold-based moiety comprises at least one gold nanoparticle associated with an oligomer or polymer of the general Formula: wherein K is a point of connectivity to a GNP, optionally being -S-; B is a point of connectivity to the at least one enzyme interacting moiety, optionally selected from -C O-, -C -, -C 1 -C 10 alkylene-C O-, -C 1 -C 10 alkylene-C -, -C -C 1 -C 10 alkylene-C - and -C -C 1 -C 10 alkylene-C O-; X is a heteroatom selected from -NH-, O and S; n is an integer from 1 to 20; and m is an integer from 1 to 150. a compound wherein the at least one carrier is a dendrimer associated with: (a) the plurality of CT imaging moieties, at least a portion of said plurality of CT imaging moieties being and (b) the at least one enzyme interacting moiety; wherein the at least one dendrimer is a PAMAM selected from PAMAM (G-1), PAMAM (G-2), PAMAM (G-3), PAMAM (G-4) and PAMAM (G-5) OR (a) the plurality of CT imaging moieties, at least a portion of said plurality of CT imaging moieties being and (b) the at least one enzyme interacting moiety; a compound wherein the gold-based moiety comprises at least one gold nanoparticle associated with an oligomer or polymer of the general Formula: K is a point of connectivity to a GNP, optionally being -S-; B is a point of connectivity to the at least one enzyme interacting moiety, optionally selected from -C O-, -C -, -C 1 -C 10 alkylene-C O-, -C 1 -C 10 alkylene-C -, -C -C 1 -C 10 alkylene-C - and -C -C 1 -C 10 alkylene-C O-; X is a heteroatom selected from -NH-, O and S; n is an integer from 1 to 20; and m is an integer from 1 to 150.