mhurhangee/ep-ind-claims huggingface dataset:
A transfer apparatus comprising: a rod-shaped member (2A, 2B) that includes a magnetic material; a cover configured to cover the rod-shaped member (2A, 2B), the cover being made of a nonmagnetic material; a first terminal member configured to allow insertion of one end portion of the rod-shaped member (2A, 2B); a second terminal member configured to allow insertion of the other end portion of the rod-shaped member (2A, 2B); an opposite member (3A, 3B) configured to face a part of a side surface of the rod-shaped member (2A, 2B), the opposite member (3A, 3B) including a magnetic material, wherein the opposite member (3A, 3B) is configured to move along the central axis of the rod-shaped member (2A, 2B) when a driving device rotates the rod-shaped member (2A, 2B) and a driving device (4A, 4B) configured to be connected to the first terminal member, rotate the rod-shaped member (2A, 2B) about a central axis of the rod-shaped member (2A, 2B), and change a relative position between the rod-shaped member (2A, 2B) and the opposite member (3A, 3B), wherein the rod-shaped member (2A, 2B) and the first terminal member are fixed to each other, the cover and the first terminal member are fixed to each other, the rod-shaped member (2A, 2B) and the second terminal member are not fixed to each other, and the cover and the second terminal member are fixed to each other. a rod-shaped member (2A, 2B) that includes a magnetic material; a cover configured to cover the rod-shaped member (2A, 2B), the cover being made of a nonmagnetic material; a first terminal member configured to allow insertion of one end portion of the rod-shaped member (2A, 2B); a second terminal member configured to allow insertion of the other end portion of the rod-shaped member (2A, 2B); an opposite member (3A, 3B) configured to face a part of a side surface of the rod-shaped member (2A, 2B), the opposite member (3A, 3B) including a magnetic material, wherein the opposite member (3A, 3B) is configured to move along the central axis of the rod-shaped member (2A, 2B) when a driving device rotates the rod-shaped member (2A, 2B) and a driving device (4A, 4B) configured to be connected to the first terminal member, rotate the rod-shaped member (2A, 2B) about a central axis of the rod-shaped member (2A, 2B), and change a relative position between the rod-shaped member (2A, 2B) and the opposite member (3A, 3B), wherein the rod-shaped member (2A, 2B) and the first terminal member are fixed to each other, the cover and the first terminal member are fixed to each other, the rod-shaped member (2A, 2B) and the second terminal member are not fixed to each other, and the cover and the second terminal member are fixed to each other.
A process for passivating a surface of a dehydrochlorination reactor comprising: stopping a flow of hydrochlorofluoropropane to a reactor, passing a gas mixture comprising hydrogen gas through the reactor at a temperature of at least 25° C for a period of time sufficient to restore the selectivity of a dehydrochlorination reaction, stopping the flow of the hydrogen gas mixture, and resuming the flow of hydrochlorofluoropropane to the dehydrochlorination reaction, wherein the gas mixture further comprises an inert diluent gas and wherein the concentration of hydrogen gas in said gas mixture is at least 0.5% by mole.
Device for connecting structural components, in particular by means of direct screwing, especially flow hole screwing, or also by means of friction welding, having - a guide element extending in an axial direction, - a driveshaft, which can be driven by a rotary drive and which can be moved in the axial direction, - a feed drive, which is designed to generate a feed movement and a feed force of at least 500 N, - the feed drive comprising a feed unit (40, 42), which is designed to transmit the feed movement and the feed force to the driveshaft and for this purpose has a component movable in the axial direction, - a control unit for controlling the feed drive, the control unit being designed in such a way that during operation a switchover is made from a first feed force to a second feed force depending on a process parameter, - the feed unit (40, 42) being arranged coaxially with the driveshaft within the guide element such that the feed force is transmitted to the driveshaft centrally and without transverse force and without bending moments arising, wherein - the feed unit (40, 42) has a spindle drive with two spindle elements, specifically with a spindle nut and with a threaded spindle, - rotational movements of the feed drive and of the driveshaft are decoupled from one another. - a guide element extending in an axial direction, - a driveshaft, which can be driven by a rotary drive and which can be moved in the axial direction, - a feed drive, which is designed to generate a feed movement and a feed force of at least 500 N, - the feed drive comprising a feed unit (40, 42), which is designed to transmit the feed movement and the feed force to the driveshaft and for this purpose has a component movable in the axial direction, - a control unit for controlling the feed drive, the control unit being designed in such a way that during operation a switchover is made from a first feed force to a second feed force depending on a process parameter, - the feed unit (40, 42) being arranged coaxially with the driveshaft within the guide element such that the feed force is transmitted to the driveshaft centrally and without transverse force and without bending moments arising, wherein - the feed unit (40, 42) has a spindle drive with two spindle elements, specifically with a spindle nut and with a threaded spindle, - rotational movements of the feed drive and of the driveshaft are decoupled from one another.
An intrinsically safe voltage clamping device comprising: a regulated rail; a ground rail; a shunt regulator assembly coupled to both the regulated rail and the ground rail and including one or more regulating components, the shunt regulator assembly configured to clamp a voltage applied across the regulated rail and the ground rail to a safety clamp voltage value; and a power-sensing component comprising one of: a thermally activated component configured to, when a temperature of at least one of the regulating components exceeds a threshold value, cause one or more limiting components to reduce a power dissipated in the at least one of the regulating components, or a current-sensing resistor configured to, when the current through the resistor exceeds a threshold value, cause one or more limiting components to reduce a power dissipated in the at least one of the regulating components, wherein the one or more regulating components includes a first transistor (212, 222), and wherein the one or more limiting components includes a second transistor (218, 224). a regulated rail; a ground rail; a shunt regulator assembly coupled to both the regulated rail and the ground rail and including one or more regulating components, the shunt regulator assembly configured to clamp a voltage applied across the regulated rail and the ground rail to a safety clamp voltage value; and a power-sensing component comprising one of: a thermally activated component configured to, when a temperature of at least one of the regulating components exceeds a threshold value, cause one or more limiting components to reduce a power dissipated in the at least one of the regulating components, or a current-sensing resistor configured to, when the current through the resistor exceeds a threshold value, cause one or more limiting components to reduce a power dissipated in the at least one of the regulating components, wherein the one or more regulating components includes a first transistor (212, 222), and wherein the one or more limiting components includes a second transistor (218, 224). a thermally activated component configured to, when a temperature of at least one of the regulating components exceeds a threshold value, cause one or more limiting components to reduce a power dissipated in the at least one of the regulating components, or a current-sensing resistor configured to, when the current through the resistor exceeds a threshold value, cause one or more limiting components to reduce a power dissipated in the at least one of the regulating components,
A signal driving method, wherein one signal driving cycle comprises at least two signal driving periods in which drive signals are applied to P detection electrodes of a plurality of first detection electrodes of a touch sensor, the touch sensor comprising the plurality of first detection electrodes arranged in parallel to each other in a first direction and a plurality of second detection electrodes arranged in parallel to each other in a second direction, each of the plurality of first detection electrodes extending in the second direction, each of the plurality of second detection electrodes extending in the first direction, and the second direction being perpendicular to the first direction; characterized in that non-inverting drive signals are applied to at least one of the P detection electrodes in two signal driving periods, and the signal driving method comprises: in a first signal driving period, applying non-inverting drive signals to M adjacent detection electrodes and applying inverting drive signals to N adjacent detection electrodes different from the M adjacent detection electrodes, wherein M+N≤P, and the M adjacent detection electrodes and the N adjacent detection electrodes are all part of the P detection electrodes; and in a second signal driving period, applying the non-inverting drive signals to K adjacent detection electrodes and applying the inverting drive signals to L adjacent detection electrodes different from the K adjacent detection electrodes, wherein K+L≤P, and the K adjacent detection electrodes and the L adjacent detection electrodes are all part of the P detection electrodes; wherein P is not greater than a number of the plurality of first detection electrodes, phases of the inverting drive signals are 180 degrees opposite to phases of the non-inverting drive signals, and the signal driving method serves to send an uplink signal to an active pen. in a first signal driving period, applying non-inverting drive signals to M adjacent detection electrodes and applying inverting drive signals to N adjacent detection electrodes different from the M adjacent detection electrodes, wherein M+N≤P, and the M adjacent detection electrodes and the N adjacent detection electrodes are all part of the P detection electrodes; and in a second signal driving period, applying the non-inverting drive signals to K adjacent detection electrodes and applying the inverting drive signals to L adjacent detection electrodes different from the K adjacent detection electrodes, wherein K+L≤P, and the K adjacent detection electrodes and the L adjacent detection electrodes are all part of the P detection electrodes; wherein P is not greater than a number of the plurality of first detection electrodes, phases of the inverting drive signals are 180 degrees opposite to phases of the non-inverting drive signals, and the signal driving method serves to send an uplink signal to an active pen.
A container having at least one wall composed of a corrugated board comprising an inner linerboard, an outer linerboard and a fluting arranged between the inner linerboard and the outer linerboard, characterized in that the hygroexpansivity in the CD of the inner linerboard is higher than the hygroexpansivity in the CD of the outer linerboard, wherein hygroexpansivity is measured according to ISO 8226-2:1990.
A method for transmitting data by a station, STA, in a wireless local area network, WLAN, system, the method comprising: receiving a grant frame for dynamically allocating an allocation period within a data transmission interval, DTI, from an access point, AP, wherein the grant frame is received during the DTI, wherein the grant frame comprises dynamic allocation information for, during the allocation period, allocating either a plurality of channels including a primary channel of the WLAN system or at least one secondary channel except the primary channel; and transmitting data in the allocation period through either the plurality of channels including the primary channel or at least one secondary channel except the primary channel allocated by the dynamic allocation information, wherein, based on the plurality of channels including the primary channel being allocated during the allocation period, the STA transmits the data by bonding or aggregating the plurality of channels. receiving a grant frame for dynamically allocating an allocation period within a data transmission interval, DTI, from an access point, AP, wherein the grant frame is received during the DTI, wherein the grant frame comprises dynamic allocation information for, during the allocation period, allocating either a plurality of channels including a primary channel of the WLAN system or at least one secondary channel except the primary channel; and transmitting data in the allocation period through either the plurality of channels including the primary channel or at least one secondary channel except the primary channel allocated by the dynamic allocation information, wherein, based on the plurality of channels including the primary channel being allocated during the allocation period, the STA transmits the data by bonding or aggregating the plurality of channels.
A method, performed by a user equipment, UE,, for communicating with one or more wireless networks using multiple radio access technologies, RATs, comprising: communicating with a first access point using a first RAT over a first connection to access a first wireless network; communicating with a second access point using a second RAT over a second connection, wherein the second connection is configured to implement traffic aggregation with the first connection based at least in part on a configuration received by the UE from the first access point; managing the second connection based at least in part on the implementation of the traffic aggregation with the first connection; wherein the first RAT is a wireless wide area network, WWAN, RAT and the second RAT is a wireless local area network, WLAN, RAT; wherein managing the second connection comprises determining whether the second connection configured to implement the traffic aggregation is prioritized over one or more other connections of the second RAT; and wherein managing the second connection comprises refraining from reporting availability of other networks of the second RAT to a selection function of the second RAT based at least in part on determining that connections of the second RAT configured to use traffic aggregation are prioritized over other connections of the second RAT. communicating with a first access point using a first RAT over a first connection to access a first wireless network; communicating with a second access point using a second RAT over a second connection, wherein the second connection is configured to implement traffic aggregation with the first connection based at least in part on a configuration received by the UE from the first access point; managing the second connection based at least in part on the implementation of the traffic aggregation with the first connection; wherein the first RAT is a wireless wide area network, WWAN, RAT and the second RAT is a wireless local area network, WLAN, RAT; wherein managing the second connection comprises determining whether the second connection configured to implement the traffic aggregation is prioritized over one or more other connections of the second RAT; and wherein managing the second connection comprises refraining from reporting availability of other networks of the second RAT to a selection function of the second RAT based at least in part on determining that connections of the second RAT configured to use traffic aggregation are prioritized over other connections of the second RAT.
A method, performed by a wireless communication device, for enabling contention resolution of uplink transmissions at a radio network node, wherein the network node is comprised in a Global System for Mobile communication with Enhanced Data rates for Global Evolution, "GSM/EDGE", and the method comprises: sending (3010; 4010) an access request to the radio network node; receiving (3040; 4040) an access grant from the radio network node; and sending (3050-3110; 4050-4110), to the radio network node, at least two data blocks, characterized in that the at least two data blocks includes only one occurrence of a unique device identity "ID" and at least one occurrence of a reduced ID that is represented by fewer bits than the unique device ID. sending (3010; 4010) an access request to the radio network node; receiving (3040; 4040) an access grant from the radio network node; and sending (3050-3110; 4050-4110), to the radio network node, at least two data blocks, characterized in that the at least two data blocks includes only one occurrence of a unique device identity "ID" and at least one occurrence of a reduced ID that is represented by fewer bits than the unique device ID.
A machine-readable memory having instructions stored therein, which when executed by a processor of an apparatus remote from a mobile global positioning system receiver cause the processor to perform a method for determining the position of the mobile GPS receiver, the mobile GPS receiver being located within a cell served by a cell site and being coupled to a cell-based cellular communication device transmitting and receiving cellular communications signals to and from the cell site, the method comprising: monitoring transmissions of cellular communications signals corresponding to the cellular communication signals received by said cell-based cellular communication device from said cell site; determining a time-of-day of at least a portion of said transmissions; receiving from said mobile GPS receiver, a relative time of pseudoranges measurement with respect to a time indicator within the cellular communication signals received by said cell-based cellular communication device from said cell site; and determining the time of pseudoranges measurement at the mobile GPS receiver from said time-of-day and said relative time; wherein the position of said mobile GPS receiver is determined using said determined time of pseudoranges measurement. monitoring transmissions of cellular communications signals corresponding to the cellular communication signals received by said cell-based cellular communication device from said cell site; determining a time-of-day of at least a portion of said transmissions; receiving from said mobile GPS receiver, a relative time of pseudoranges measurement with respect to a time indicator within the cellular communication signals received by said cell-based cellular communication device from said cell site; and determining the time of pseudoranges measurement at the mobile GPS receiver from said time-of-day and said relative time; wherein the position of said mobile GPS receiver is determined using said determined time of pseudoranges measurement.
A method for management of at least one characteristic of at least one parameter used on board an aerodynamic vehicle, this method being characterized in that it comprises the following steps: - receiving an identifier (205, 210) of said at least one parameter; - receiving said at least one characteristic of said at least one parameter; - formulating said at least one characteristic of said at least one parameter according to a predetermined format; and - creating an identification code of said at least one parameter comprising said identifier and said at least one characteristic. - receiving an identifier (205, 210) of said at least one parameter; - receiving said at least one characteristic of said at least one parameter; - formulating said at least one characteristic of said at least one parameter according to a predetermined format; and - creating an identification code of said at least one parameter comprising said identifier and said at least one characteristic.
A method of transmitting a device-to-device, D2D, synchronization signal by a first D2D terminal in a wireless communication system, the method comprising: receiving radio resource configuration information for D2D communication from a base station; and wherein the radio resource configuration information comprises information indicating a subframe index for transmitting the D2D synchronization signal among a plurality of D2D radio resources, transmitting the D2D synchronization signal generated using a root sequence index through a second radio resource corresponding to the subframe; wherein the root sequence index is derived from the subframe index, wherein the plurality of D2D radio resources comprises a first radio resource and the second radio resource, and wherein the first radio resource is defined to be used for wide area network, WAN, based communication. receiving radio resource configuration information for D2D communication from a base station; and wherein the radio resource configuration information comprises information indicating a subframe index for transmitting the D2D synchronization signal among a plurality of D2D radio resources, transmitting the D2D synchronization signal generated using a root sequence index through a second radio resource corresponding to the subframe; wherein the root sequence index is derived from the subframe index, wherein the plurality of D2D radio resources comprises a first radio resource and the second radio resource, and wherein the first radio resource is defined to be used for wide area network, WAN, based communication.
A device for capturing suspended biological particles in a liquid medium and for preparing biological samples for cytological analysis, comprising: - a tube comprising first and second ends, - the first end of said tube being closed by the surface of a filter membrane rendered stationary by adhesion onto the cross-section of the walls of said tube, - a piston comprising a rod connected to a bearing means, said rod sliding along an axis parallel to the walls of the tube, the said piston moving freely along the vertical axis of the tube, and the edges of the piston bearing means not being continuously contacting the surface of the inner wall of the tube, - a block of hydrophilic absorbent material placed inside the tube, inserted between (i) the inner surface of the filter membrane and (ii) the piston bearing means, the said absorbent material being capable to swell when contacting an aqueous liquid medium. - a tube comprising first and second ends, - the first end of said tube being closed by the surface of a filter membrane rendered stationary by adhesion onto the cross-section of the walls of said tube, - a piston comprising a rod connected to a bearing means, said rod sliding along an axis parallel to the walls of the tube, the said piston moving freely along the vertical axis of the tube, and the edges of the piston bearing means not being continuously contacting the surface of the inner wall of the tube, - the first end of said tube being closed by the surface of a filter membrane rendered stationary by adhesion onto the cross-section of the walls of said tube, - a piston comprising a rod connected to a bearing means, said rod sliding along an axis parallel to the walls of the tube, the said piston moving freely along the vertical axis of the tube, and the edges of the piston bearing means not being continuously contacting the surface of the inner wall of the tube, - a block of hydrophilic absorbent material placed inside the tube, inserted between (i) the inner surface of the filter membrane and (ii) the piston bearing means, the said absorbent material being capable to swell when contacting an aqueous liquid medium.