mhurhangee/ep-ind-claims huggingface dataset:
A cleaning/disinfecting apparatus comprising: a plurality of attachment portions (2a, 2b) for attaching an endoscope (100a, 100b); a cleaning/disinfecting portion configured to communicate with the plurality of attachment portions (2a, 2b), and configured to execute different types of cleaning/disinfection menus for the respective attachment portions (2a, 2b) simultaneously; an endoscope information reading portion configured to read endoscope information from the endoscope (100a, 100b); and a control portion configured to determine a cleaning/disinfection menu from among the cleaning/disinfection menus based on the endoscope information, and output attachment portion identifying information for identifying an attachment portion (2a, 2b) for executing the determined cleaning/disinfection menu; characterized by a notifying portion configured to notify the attachment portion identifying information outputted from the control portion. a plurality of attachment portions (2a, 2b) for attaching an endoscope (100a, 100b); a cleaning/disinfecting portion configured to communicate with the plurality of attachment portions (2a, 2b), and configured to execute different types of cleaning/disinfection menus for the respective attachment portions (2a, 2b) simultaneously; an endoscope information reading portion configured to read endoscope information from the endoscope (100a, 100b); and a control portion configured to determine a cleaning/disinfection menu from among the cleaning/disinfection menus based on the endoscope information, and output attachment portion identifying information for identifying an attachment portion (2a, 2b) for executing the determined cleaning/disinfection menu; characterized by a notifying portion configured to notify the attachment portion identifying information outputted from the control portion.
A method for a purification of trichlorosilane, the method comprising: performing a pretreatment for separating a chlorosilane mixture including trichlorosilane and tetrachlorosilane as a main ingredient from reaction products of a trichlorosilane production reaction; performing a first purification for separating the chlorosilane mixture into a first top stream including a mixture of trace impurities and trichlorosilane, and a first bottom stream including tetrachlorosilane as a main ingredient; performing a second purification for separating the first top stream into a second top stream including a mixture of trace impurities having a low boiling point and trichlorosilane, and a second bottom stream including a mixture of trace impurities having a high boiling point and trichlorosilane; and performing a third purification for separating the second bottom stream into a third top stream including trichlorosilane as a main ingredient, and a third bottom stream including a mixture of trace impurities having a high boiling point and trichlorosilane, wherein the performing of the third purification is carried out under pressure conditions higher than those of the performing of the second purification, and a heat exchange is generated between the second bottom stream and the third top stream. performing a pretreatment for separating a chlorosilane mixture including trichlorosilane and tetrachlorosilane as a main ingredient from reaction products of a trichlorosilane production reaction; performing a first purification for separating the chlorosilane mixture into a first top stream including a mixture of trace impurities and trichlorosilane, and a first bottom stream including tetrachlorosilane as a main ingredient; performing a second purification for separating the first top stream into a second top stream including a mixture of trace impurities having a low boiling point and trichlorosilane, and a second bottom stream including a mixture of trace impurities having a high boiling point and trichlorosilane; and performing a third purification for separating the second bottom stream into a third top stream including trichlorosilane as a main ingredient, and a third bottom stream including a mixture of trace impurities having a high boiling point and trichlorosilane, wherein the performing of the third purification is carried out under pressure conditions higher than those of the performing of the second purification, and a heat exchange is generated between the second bottom stream and the third top stream.
A combination ball bearing of even rows comprising angular ball bearings (40, 50, 60, 70) axially arranged in four or more even rows, wherein a ball pitch circle diameter ratio is configured such that 1.0 ≤ ball pitch circle diameter of one of the outer row bearings/ball pitch circle diameter of one of the inner row bearings < 1.5, wherein the ball bearings (40, 50, 60, 70) are axially arranged bilaterally symmetric, wherein a contact angle (α1, α4) of the angular ball bearing (40, 70) arranged at the axially outer side is greater than a contact angle (α2, α3) of the angular ball bearing (50, 60) arranged at the axially inner side, wherein the contact angle (α1, α2, α3, α4) of each row of angular ball bearings (40, 50, 60, 70) is between 10° and 30°, and wherein the angular ball bearings (40, 50, 60, 70) are arranged so as to configure a back-surface combination, characterised in that a ball diameter (d1, d4) of at least one of the angular ball bearings (40, 70) arranged at an axially outer side is greater than a ball diameter (d2, d3) of the angular ball bearings (50, 60) arranged at an axially inner side, wherein a ball diameter ratio is configured such that 1.0 < ball diameter of one of the outer row bearings/ball diameter of one of the inner row bearings < 4.6.
A method comprising, at an access point in wireless data communication with a plurality of stations: receiving from each of the plurality of stations information about the respective propagation delay for the respective station; grouping the plurality of stations according to propagation delay of radio transmissions from each respective station to the access point, such that a difference in respective propagation delays between stations in a group is large enough to avoid receipt of a data transmission from a station in the group beginning before a data transmission from another station in the group is completely received; transmitting a single polling frame to a plurality of stations; and receiving respective data transmissions from respective stations of the plurality of stations at respective times. receiving from each of the plurality of stations information about the respective propagation delay for the respective station; grouping the plurality of stations according to propagation delay of radio transmissions from each respective station to the access point, such that a difference in respective propagation delays between stations in a group is large enough to avoid receipt of a data transmission from a station in the group beginning before a data transmission from another station in the group is completely received; transmitting a single polling frame to a plurality of stations; and receiving respective data transmissions from respective stations of the plurality of stations at respective times.
A process for producing a chitosan derivative by activating chitosan, by suspending the said chitosan in alcohol that contains water from 0% to maximum of about 30%, stirring with heating for a period of time to get activated chitosan or chitosan precursor and thereafter reacting the said activated chitosan or activated precursor with a reagent capable of complexing by physical forces or chemical forces to prepare a derivative.
A method for task characterization on a material handling vehicle, comprising: monitoring data communicated between one or more on-board sensors and a vehicle controller on the material handling vehicle, wherein the material handling vehicle includes a mast and forks; the method being characterized by the following steps: identifying a repetition or pattern in the monitored data, the repetition or pattern including: picking up an object at floor level; moving less than or equal to a first predefined distance; placing the object; and moving less than or equal to a second predefined distance; determining that the repetition or pattern in the monitored data is a vehicle task, wherein the vehicle task is classified as loading or unloading a trailer; and modifying an operational parameter of the material handling vehicle based on the determined vehicle task, wherein modifying the operational parameter comprises reducing a maximum height of the mast or the forks to below a predetermined height based on the vehicle task. picking up an object at floor level; moving less than or equal to a first predefined distance; placing the object; and moving less than or equal to a second predefined distance; determining that the repetition or pattern in the monitored data is a vehicle task, wherein the vehicle task is classified as loading or unloading a trailer; and modifying an operational parameter of the material handling vehicle based on the determined vehicle task, wherein modifying the operational parameter comprises reducing a maximum height of the mast or the forks to below a predetermined height based on the vehicle task.
An information centric networking, ICN, network access point, NAP, for anchoring communication between Internet Protocol, IP, based devices in an ICN network or across an IP peer network, the NAP comprising: a circuitry configured to receive an IP packet from an IP-only wireless transmit/receive unit, WTRU; the circuitry further configured to determine an appropriate ICN name for the IP packet based on an IP address of an intended destination of the IP packet, wherein the ICN name comprises a hierarchy of a root identifier for IP over ICN communication, a first sub-scope identifier for communication with IP addresses within the ICN network and a second sub-scope identifier for communication with IP addresses outside the ICN network below the root identifier, and one or more levels of IP subnet identifiers below the first sub-scope identifier and the second sub-scope identifier, and wherein the circuitry is configured to assign the first sub-scope identifier and the second sub-scope identifier; the circuitry further configured to encapsulate the IP packet into an ICN packet by inserting the ICN name into a packet header of the ICN packet; and the circuitry further configured to send the ICN packet to a plurality of devices subscribed to the ICN name. a circuitry configured to receive an IP packet from an IP-only wireless transmit/receive unit, WTRU; the circuitry further configured to determine an appropriate ICN name for the IP packet based on an IP address of an intended destination of the IP packet, wherein the ICN name comprises a hierarchy of a root identifier for IP over ICN communication, a first sub-scope identifier for communication with IP addresses within the ICN network and a second sub-scope identifier for communication with IP addresses outside the ICN network below the root identifier, and one or more levels of IP subnet identifiers below the first sub-scope identifier and the second sub-scope identifier, and wherein the circuitry is configured to assign the first sub-scope identifier and the second sub-scope identifier; the circuitry further configured to encapsulate the IP packet into an ICN packet by inserting the ICN name into a packet header of the ICN packet; and the circuitry further configured to send the ICN packet to a plurality of devices subscribed to the ICN name.
Method for detecting attacks on at least one physical interface of a computer system for connection to another device, namely a self-service machine in the form of a cash machine and/or a bottle vending machine and/or a vending machine, comprising: - monitoring the interface in order to determine changes to the interface; - if changes occur, the type of change is used to determine the probability of an unauthorized attack on the interface; one or more of the following events being taken into account when calculating the probability: permissible number of devices from a device class; interval of time between the removal and connection of a device to the interface; time at which a device is connected to the interface or is removed; mode of the computer system when a device is connected to the interface or is removed, such as a customer mode or a service mode; a point value, preferably an adjustable point value, being assigned to each event, and the events being summed, with the result that the sum can be used to check whether a threshold value has been exceeded; - if the sum is above a defined threshold value, the probability of an unauthorized attack on the interface exists and defensive measures are initiated. - monitoring the interface in order to determine changes to the interface; - if changes occur, the type of change is used to determine the probability of an unauthorized attack on the interface; one or more of the following events being taken into account when calculating the probability: permissible number of devices from a device class; interval of time between the removal and connection of a device to the interface; time at which a device is connected to the interface or is removed; mode of the computer system when a device is connected to the interface or is removed, such as a customer mode or a service mode; - if the sum is above a defined threshold value, the probability of an unauthorized attack on the interface exists and defensive measures are initiated.
A container sterilization method for sterilizing a container with electron beams irradiated from electron-beam irradiating devices (21, 22, 23, 24) while transporting the container along a carrier path (L1, L2), the method comprising: irradiating substantially identical outside surface of the container with electron beams irradiated from one or more upstream electron-beam irradiating devices (21, 23) and one or more downstream electron-beam irradiating devices (22, 24) spaced to each other with a predetermined distance (P') along the carrier path (L2, L3); and controlling a sum of electron beam outputs irradiated from the upstream and downstream electron-beam irradiating devices (21, 22, 23, 24) by means of a sterilization controller so as to at least allow sterilization on the surface of the container, characterized in that each of the electron-beam irradiating devices (21, 22, 23, 24) has a vacuum chamber, the method further comprising: monitoring a vacuum state in the vacuum chamber of each of the electron-beam irradiating devices (21, 22, 23, 24); and controlling an electron beam output of the electron-beam irradiating device including the vacuum chamber with a low degree of vacuum to be smaller than an electron beam output of the electron-beam irradiating device including the vacuum chamber with a high degree of vacuum in order to prevent sparking in the electron-beam irradiating device including the vacuum chamber with the low degree of vacuum. irradiating substantially identical outside surface of the container with electron beams irradiated from one or more upstream electron-beam irradiating devices (21, 23) and one or more downstream electron-beam irradiating devices (22, 24) spaced to each other with a predetermined distance (P') along the carrier path (L2, L3); and controlling a sum of electron beam outputs irradiated from the upstream and downstream electron-beam irradiating devices (21, 22, 23, 24) by means of a sterilization controller so as to at least allow sterilization on the surface of the container, characterized in that monitoring a vacuum state in the vacuum chamber of each of the electron-beam irradiating devices (21, 22, 23, 24); and controlling an electron beam output of the electron-beam irradiating device including the vacuum chamber with a low degree of vacuum to be smaller than an electron beam output of the electron-beam irradiating device including the vacuum chamber with a high degree of vacuum in order to prevent sparking in the electron-beam irradiating device including the vacuum chamber with the low degree of vacuum.
System configured for the reduction of aircraft sounds travelling in a wave-guide in the air above the ground at the lateral side of a runway, comprising, below the ground at said lateral side of the runway, at least a top layer which extends downwardly from an interface between said top layer and the air and which, at said interface, has an acoustic impedance which substantially matches the acoustic impedance of the air, characterized in that the system is configured for the reduction of aircraft sounds in the range of 15 Hz to 40 Hz during the first part of take-off, wherein the top layer is part of an assembly comprising at least two superimposed layers with different density and/or different speed of sound and/or different thickness.
A feedback control system that calculates a P term and an I term on the basis of a deviation between a target value and a measured value of a control amount, and calculates a correction amount to be applied to an operation amount of a control subject on the basis of a PI term, which is a sum of the P term and the I term, the feedback control system characterized by comprising: means for restricting a magnitude of the PI term using a first guard; means for calculating, as a corrected previous value of the I term, a value obtained by subtracting a difference between a value of the PI term prior to restriction by the first guard and a value of the PI term following restriction by the first guard, from a value of the I term; means for updating the value of the I term by adding an update amount calculated from the deviation to the corrected previous value; and means for restricting a magnitude of the P term using a third guard, wherein a value of the third guard is set at a value that is identical to or smaller than a value of the first guard. means for restricting a magnitude of the PI term using a first guard; means for calculating, as a corrected previous value of the I term, a value obtained by subtracting a difference between a value of the PI term prior to restriction by the first guard and a value of the PI term following restriction by the first guard, from a value of the I term; means for updating the value of the I term by adding an update amount calculated from the deviation to the corrected previous value; and means for restricting a magnitude of the P term using a third guard, wherein a value of the third guard is set at a value that is identical to or smaller than a value of the first guard.
Control method used in a variable speed drive for starting a synchronous electric motor provided with a rotor and connected by output phases to said variable speed drive, said method being characterised in that it includes steps of: • applying as an input a reference speed (ωs) according to a predefined continuous speed profile, said speed profile beginning with a zero initial value, followed by a slope increasing to a maximum value and then a slope decreasing to a zero final value, to rotate the rotor of said motor, • determining a reference position (θs) from the reference speed applied as an input, • determining a voltage (Vdq) in a reference frame rotating at the speed of the electric motor, from the reference speed applied as an input, • determining control voltages (Va, Vb, Vc) to be applied to each output phase according firstly to the determined reference position and secondly to said voltage determined in the rotating reference frame, • applying control voltages (Va, Vb, Vc) to each output phase to obtain an alignment of the position of the rotor of said motor on the reference position (θs). • applying as an input a reference speed (ωs) according to a predefined continuous speed profile, said speed profile beginning with a zero initial value, followed by a slope increasing to a maximum value and then a slope decreasing to a zero final value, to rotate the rotor of said motor, • determining a reference position (θs) from the reference speed applied as an input, • determining a voltage (Vdq) in a reference frame rotating at the speed of the electric motor, from the reference speed applied as an input, • determining control voltages (Va, Vb, Vc) to be applied to each output phase according firstly to the determined reference position and secondly to said voltage determined in the rotating reference frame, • applying control voltages (Va, Vb, Vc) to each output phase to obtain an alignment of the position of the rotor of said motor on the reference position (θs).
An infusion system comprising an infusion tubing circuit and a radioisotope generator, the infusion tubing circuit comprising an eluant reservoir, a pump coupled to the reservoir, an activity detector, a divergence valve, an eluant line coupled to the pump and the radioisotope generator, an eluate line coupled to the activity detector and the radioisotope generator, a sample collection reservoir located downstream of the divergence valve and in fluid communication with the eluate line, a waste bottle, a timer, and a computer coupled to a user interface, to the pump and to the activity detector and being pre-programmed to receive input from a user of the system, via the user interface, to collect information from the pump and the activity generator, and to provide output to the user via the user interface, wherein: at least a portion of the eluate line is located within a shielding assembly of the infusion system; and the computer is arranged to start a timer once any elution is completed and display, via the user interface, an indication of a time lapse since the elution was completed; wherein the indication of a time lapse is either in terms of a time countdown or in terms of a time from completion of the elution; the system being characterised in that: t he sample collection reservoir is configured to receive quality control test samples of eluate; and t he infusion system further comprises an on-board dose calibrator, and a separate shielded well in which the sample collection reservoir and on-board dose calibrator are located. at least a portion of the eluate line is located within a shielding assembly of the infusion system; and the computer is arranged to start a timer once any elution is completed and display, via the user interface, an indication of a time lapse since the elution was completed; wherein the indication of a time lapse is either in terms of a time countdown or in terms of a time from completion of the elution; t he sample collection reservoir is configured to receive quality control test samples of eluate; and t he infusion system further comprises an on-board dose calibrator, and a separate shielded well in which the sample collection reservoir and on-board dose calibrator are located.