mhurhangee/ep-ind-claims huggingface dataset:
A control device comprising: information analysis means configured to perform measurement processing of measuring a communication volume per measurement time interval in each flow included in input traffic and configured to generate traffic information including information representing at least the measured communication volume of each of the flows and a time at which measurement is taken; reduction target selection means configured to generate, in each of the measurement time intervals, ranking information representing a ranking which is a rank order of a communication volume of each of the flows in the input traffic, based on the traffic information, and configured to select a flow having the ranking that has a trend to change in a particular direction as a reduction target flow whose communication volume is to be reduced, based on a trend of change in ranking information over a plurality of past measurement time intervals; and traffic control means configured to perform reduction processing of reducing a communication volume on the reduction target flow, and configured to transmit the reduction target flow subjected to the reduction processing together with another flow included in the input traffic as output traffic. information analysis means configured to perform measurement processing of measuring a communication volume per measurement time interval in each flow included in input traffic and configured to generate traffic information including information representing at least the measured communication volume of each of the flows and a time at which measurement is taken; reduction target selection means configured to generate, in each of the measurement time intervals, ranking information representing a ranking which is a rank order of a communication volume of each of the flows in the input traffic, based on the traffic information, and configured to select a flow having the ranking that has a trend to change in a particular direction as a reduction target flow whose communication volume is to be reduced, based on a trend of change in ranking information over a plurality of past measurement time intervals; and traffic control means configured to perform reduction processing of reducing a communication volume on the reduction target flow, and configured to transmit the reduction target flow subjected to the reduction processing together with another flow included in the input traffic as output traffic.
A detection apparatus comprising: a unit to acquire, when an IoT Internet of Things device is added to a monitoring target IoT network, information on the IoT device; a model acquisition unit configured to specify based on the information on the IoT device, functions of the IoT device and to acquire, from a storage unit having stored therein normal communication models for determining, for each function of the IoT device, whether or not communication of the IoT device having the function is normal communication, a plurality of normal communication models that correspond to the functions of the IoT device and wherein the normal communication models are created based on learning event probabilities of normal communication patterns of the IoT device; a model coupling unit configured to couple the plurality of acquired normal communication models; a detection unit configured to perform an initial monitoring of the communication of the IoT device using the coupled acquired normal communication models, and detect an abnormality in the communication; and an additional learning unit configured to, when a predetermined amount of communication data of the IoT device has been acquired, additionally learn the acquired coupled normal communication models using the communication data, wherein the detection unit is configured to perform, after the additional learning is completed, a subsequent monitoring of the communication of the IoT device using the additionally learned acquired coupled normal communication models, and detect the abnormality in the communication. a unit to acquire, when an IoT Internet of Things device is added to a monitoring target IoT network, information on the IoT device; a model acquisition unit configured to specify based on the information on the IoT device, functions of the IoT device and to acquire, from a storage unit having stored therein normal communication models for determining, for each function of the IoT device, whether or not communication of the IoT device having the function is normal communication, a plurality of normal communication models that correspond to the functions of the IoT device and wherein the normal communication models are created based on learning event probabilities of normal communication patterns of the IoT device; a model coupling unit configured to couple the plurality of acquired normal communication models; a detection unit configured to perform an initial monitoring of the communication of the IoT device using the coupled acquired normal communication models, and detect an abnormality in the communication; and an additional learning unit configured to, when a predetermined amount of communication data of the IoT device has been acquired, additionally learn the acquired coupled normal communication models using the communication data, wherein the detection unit is configured to perform, after the additional learning is completed, a subsequent monitoring of the communication of the IoT device using the additionally learned acquired coupled normal communication models, and detect the abnormality in the communication.
A method for the transport of laundry items hanging on clamps and for the purpose of transferring the laundry items to an input machine. wherein the respective laundry item hanging with adjacent corners (24, 25) of an edge in clamps of at least one conveyor is transferred to two spreading clamps of a spreading device of the input machine, characterized in that, the adjacent corners (24, 25) of the laundry item concerned are transferred one after the other from the clamps to the two spreading clamps of the spreading device, the transfer from the clamps to the spreading clamps is performed in a successive or bit by bit manner, in that the transfer is executed by consecutive and/or or successive clamps of the respective conveyor, and the respective laundry item is transferred to the two spreading clamps of a pair of spreading clamps by such successive or consecutive clamps of the respective conveyor which hold the adjacent corners (24, 25) of the edge of the laundry item.
A medical stent, comprising: a tubular body formed of a metal composition consisting of Fe, Mn, Si, and C, the composition may or may not include minor amounts of other elements, wherein Fe is present in amounts of at least 90%, wherein Mn is present in amounts of 0.5-6%, Si is present in amounts of 0.001-3%, C is present in amounts of 0.01 to 0.1%.
A medical device comprising: a needle subassembly and a wire subassembly including a wire, wherein one of the needle subassembly and the wire subassembly includes a permanent magnet element, and the other of the needle subassembly and the wire subassembly includes a magnetizable feature characterized in that the permanent magnet element produces a known magnetic field at a given distance x through tissue of permeability μ r and the magnetized magnetizable feature produces a known magnetic field at a given distance x through tissue of permeability μ r and measurement of relative motion of the wire subassembly and the needle subassembly is measurable by a magnetometer which measures strength and direction of the magnetic field produced by the permanent magnet element and the magnetized magnetizable feature.
A communications system, comprising a control apparatus and multiple remote apparatuses, wherein: the control apparatus is an independent baseband unit or a baseband unit in a macro base station; the control apparatus communicates with and connects to the multiple remote apparatuses, and the control apparatus controls data aggregation and distribution of the multiple remote apparatuses respectively; wherein the control apparatus receives data sent by a network management server, and distributes the data to the multiple remote apparatuses via transmission links and transmits data received from the multiple remote apparatuses through the transmission links to the network management server so that, for each of the multiple remote apparatuses, the control apparatus, the respective transmission link and the respective one of the multiple remote apparatuses are presented as only one base station to the network management server, wherein the only one base station provides a unified management interface to the network management server and the control apparatus is configured to manage the multiple remote apparatuses and transmission links between the control apparatus and the multiple remote apparatuses, and communicate with the network management device. the control apparatus is an independent baseband unit or a baseband unit in a macro base station; the control apparatus communicates with and connects to the multiple remote apparatuses, and the control apparatus controls data aggregation and distribution of the multiple remote apparatuses respectively; wherein the control apparatus receives data sent by a network management server, and distributes the data to the multiple remote apparatuses via transmission links and transmits data received from the multiple remote apparatuses through the transmission links to the network management server so that, for each of the multiple remote apparatuses, the control apparatus, the respective transmission link and the respective one of the multiple remote apparatuses are presented as only one base station to the network management server, wherein the only one base station provides a unified management interface to the network management server and the control apparatus is configured to manage the multiple remote apparatuses and transmission links between the control apparatus and the multiple remote apparatuses, and communicate with the network management device.
Method of distribution of a content in a communication network, in the form of a continuous stream, said content being segmented into a series of elementary blocks, the communication network comprising at least one client entity (10, 11), suitable for receiving data segments and storing them in memory in a queue before their continuous retrieval, said method comprising the following steps implemented by a distribution entity: a/ a step of receiving a request to access the content originating from the client entity; and for distributing a current elementary block of the requisite content: b/ a step of estimating a period of time required for the retrieval of the data stored in memory in the queue of the client entity; c/ a step of selecting one data segment among a plurality of data segments associated with the current elementary block respectively encoded at different levels of quality, when the duration of transmission of said data segment is less than the product of the estimated period of time required for the retrieval of the data stored in memory in a queue of the client entity and a predetermined coefficient of less than 1; d/ a step of sending the selected data segment, the steps b/ to d/ being repeated until all the data segments respectively associated with the elementary blocks forming the content have been sent to the client entity. a/ a step of receiving a request to access the content originating from the client entity; and for distributing a current elementary block of the requisite content: b/ a step of estimating a period of time required for the retrieval of the data stored in memory in the queue of the client entity; c/ a step of selecting one data segment among a plurality of data segments associated with the current elementary block respectively encoded at different levels of quality, when the duration of transmission of said data segment is less than the product of the estimated period of time required for the retrieval of the data stored in memory in a queue of the client entity and a predetermined coefficient of less than 1; d/ a step of sending the selected data segment, the steps b/ to d/ being repeated until all the data segments respectively associated with the elementary blocks forming the content have been sent to the client entity.
A flange removal tool assembly for removing a flange of a device coupled to a neck of a fitting of a pressure vessel, the flange removal tool assembly comprising: a cutting tool actuator that includes a housing, a motor, a lever, and a spindle, wherein the lever is disposed on the housing and interfaces with the spindle that extends from the housing; an annular cutting tool secured to the spindle, the annular cutting tool comprising a cutting tip disposed about a hollow center portion at an angle of 90 degrees relative to an axis of rotation of the spindle, wherein: the hollow center is configured to receive a body of the device such that the annular cutting tool is disposed circumferentially around the flange of the device, thereby allowing contact to occur between the flange of the device and the cutting tip; and the cutting tip is configured to remove material from the flange of the device; a vise disposed below the cutting tool actuator, the vise comprising a stationary jaw and a moving jaw that translates relative to the stationary jaw, wherein the vise is configured to grip the neck of the fitting located on the pressure vessel; and a fixture disposed below the vise, wherein the fixture includes a center support axially aligned with an axis of rotation of the spindle, the center support configured to support the pressure vessel; wherein the annular cutting tool is configured to remove the flange of the device installed in the fitting located on the pressure vessel. a cutting tool actuator that includes a housing, a motor, a lever, and a spindle, wherein the lever is disposed on the housing and interfaces with the spindle that extends from the housing; an annular cutting tool secured to the spindle, the annular cutting tool comprising a cutting tip disposed about a hollow center portion at an angle of 90 degrees relative to an axis of rotation of the spindle, wherein: the hollow center is configured to receive a body of the device such that the annular cutting tool is disposed circumferentially around the flange of the device, thereby allowing contact to occur between the flange of the device and the cutting tip; and the cutting tip is configured to remove material from the flange of the device; the hollow center is configured to receive a body of the device such that the annular cutting tool is disposed circumferentially around the flange of the device, thereby allowing contact to occur between the flange of the device and the cutting tip; and the cutting tip is configured to remove material from the flange of the device; a vise disposed below the cutting tool actuator, the vise comprising a stationary jaw and a moving jaw that translates relative to the stationary jaw, wherein the vise is configured to grip the neck of the fitting located on the pressure vessel; and a fixture disposed below the vise, wherein the fixture includes a center support axially aligned with an axis of rotation of the spindle, the center support configured to support the pressure vessel; wherein the annular cutting tool is configured to remove the flange of the device installed in the fitting located on the pressure vessel.
An electric storage device comprising a power supply system configured to use direct-current power formed from an external power supply system as charging power of an electric storage unit, and configured to supply output power of the electric storage unit to an electronic device, the power supply system comprising: the electric storage unit; a switch element configured to control charging and discharging of the electric storage unit; a control circuit configured to control the switch element; and a power supply circuit configured to form operational power of the control circuit from a voltage of the electric storage unit, the power supply circuit comprising a first series regulator including a first semiconductor element (IGBT1) and a first constant voltage source; and a second series regulator including a second semiconductor element (IGBT2) and a second constant voltage source, wherein the first series regulator and the second series regulator are cascaded and the first series regulator is configured to receive an input voltage equal to or greater than 500 V, wherein the first semiconductor element (IGBT1) and the second semiconductor element (IGBT2) each include an input electrode, an output electrode, and a control electrode, and wherein the first constant voltage source and the second constant voltage source are connected to the control electrode of the first semiconductor element (IGBT1) and the control electrode of the second semiconductor element (IGBT2), respectively, and wherein a detection unit (1, 12) configured to detect a value of at least one of the input voltage and an output voltage is provided, and wherein, when the detection unit (1, 12) detects that the value is greater than a reference value, at least one of the first constant voltage source and the second constant voltage source is controlled and at least one of the first semiconductor element (IGBT1) and the second semiconductor element (IGBT2) is turned off. a power supply system configured to use direct-current power formed from an external power supply system as charging power of an electric storage unit, and configured to supply output power of the electric storage unit to an electronic device, the electric storage unit; a switch element configured to control charging and discharging of the electric storage unit; a control circuit configured to control the switch element; and a power supply circuit configured to form operational power of the control circuit from a voltage of the electric storage unit, the power supply circuit comprising a first series regulator including a first semiconductor element (IGBT1) and a first constant voltage source; and a second series regulator including a second semiconductor element (IGBT2) and a second constant voltage source, a first series regulator including a first semiconductor element (IGBT1) and a first constant voltage source; and a second series regulator including a second semiconductor element (IGBT2) and a second constant voltage source,
A device for selectively loading a coffee capsule in a brew unit of a coffee machine, said loading device comprising one or more guide channels, each guide channel provided being able to accommodate a plurality of coffee capsules (3, 3', 3") which can be fed in a queue along the guide channel towards a section of the guide channel designed to release the capsules (3, 3', 3"), each guide channel provided having at the release section thereof a member for selectively releasing the capsule at the head of the queue of capsules (3, 3', 3"), there being further provided a single support for one or more driving members, first means for moving said support, designed to subject it to a first movement in order to select a release member by associating therewith a driving member, and second means for moving said support, designed to subject it to a second movement in order to drive the selected release member, by means of the driving member associated therewith, between a position of retaining and a position of releasing the capsule at the head of the queue of capsules (3, 3', 3"), characterized in that it has connection means between said second moving means and a movable part of the brew unit for the movement thereof.
An electromagnetic contact device, comprising a contactor holder which is configured to move a mounted movable contactor according to a displacement of a movable core of an electromagnet, with the contactor holder being accommodated together with the electromagnet in a case, wherein the case has: a lower case portion which accommodates the electromagnet, and an upper case portion which engages with the lower case portion while stacked on the lower case portion, and which accommodates the contactor holder advanced for the accommodation from above, so that, in assembly of the contact device, constituent components can be incorporated by drop-in insertion in the order of lower case portion, electromagnet, upper case portion and the contactor holder, the electromagnetic contact device further comprising an operation lever which links the movable core of the electromagnet accommodated in the lower case portion and the contactor holder; characterized in that the electromagnet is an AC-only electromagnet and in that the upper case portion of the case supports, by insertion into a hole (44, 29) therewithin, the operation lever such that, in assembly of the electromagnetic contact device, the operation lever can be inserted by drop-in insertion. a lower case portion which accommodates the electromagnet, and an upper case portion which engages with the lower case portion while stacked on the lower case portion, and which accommodates the contactor holder advanced for the accommodation from above, so that, in assembly of the contact device, constituent components can be incorporated by drop-in insertion in the order of lower case portion, electromagnet, upper case portion and the contactor holder,
A method performed by a base station for encoding control information transmitted to a user equipment, UE, from the base station in a telecommunication system employing dedicated pilot signals which are precoded with beamforming matrices, the method comprising: obtaining data for the UE; obtaining control information for use in transmitting the data to the UE, the control information comprising: information identifying a channelization code set, CCS, rank information, RI, and modulation information, MI; and multiplexing bit sequences corresponding to the control information, thereby producing a bit sequence, X1, characterized in that: X1 is ten bits in length, the first seven bits of X1 identify the CCS, and the remaining three of the ten bits of X1 identify both the RI and MI. obtaining data for the UE; obtaining control information for use in transmitting the data to the UE, the control information comprising: information identifying a channelization code set, CCS, rank information, RI, and modulation information, MI; and multiplexing bit sequences corresponding to the control information, thereby producing a bit sequence, X1, characterized in that: X1 is ten bits in length, the first seven bits of X1 identify the CCS, and the remaining three of the ten bits of X1 identify both the RI and MI. X1 is ten bits in length, the first seven bits of X1 identify the CCS, and the remaining three of the ten bits of X1 identify both the RI and MI.