mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting a tunneled direct link setup, TDLS, frame including a Medium Access Control, MAC, header, encapsulated in a data frame form in a wireless local area network, the method comprising: setting up a TDLS direct link between a first station (QSTA 1) and a second station (QSTA 2) by transmitting, by the first station via an access point, AP, to the second station, a TDLS setup request including a link identifier indicating the TDLS direct link, receiving, by the first station via the AP from the second station, a TDLS setup response including the link identifier, and transmitting, by the first station via the AP to the second station, a TDLS confirm, wherein the TDLS setup request, the TDLS setup response, and the TDLS confirm are encapsulated in the data frame form; transmitting, by the first station, a request frame to the second station in order to setup or change a wakeup schedule on the TDLS direct link, the request frame including the link identifier and the wakeup schedule which is a scheduled time to receive or transmit a data frame through the TDLS direct link, wherein the request frame is encapsulated in the data frame form; receiving, by the first station, a response frame from the second station in response to the request frame, the response frame indicating whether the wakeup schedule in the request frame is accepted or rejected by the second station, wherein the response frame is encapsulated in the data frame form; and entering, by the first station, a power save mode based on the wakeup schedule when the response frame indicates an acceptance of the wakeup schedule in the request frame. setting up a TDLS direct link between a first station (QSTA 1) and a second station (QSTA 2) by transmitting, by the first station via an access point, AP, to the second station, a TDLS setup request including a link identifier indicating the TDLS direct link, receiving, by the first station via the AP from the second station, a TDLS setup response including the link identifier, and transmitting, by the first station via the AP to the second station, a TDLS confirm, wherein the TDLS setup request, the TDLS setup response, and the TDLS confirm are encapsulated in the data frame form; transmitting, by the first station, a request frame to the second station in order to setup or change a wakeup schedule on the TDLS direct link, the request frame including the link identifier and the wakeup schedule which is a scheduled time to receive or transmit a data frame through the TDLS direct link, wherein the request frame is encapsulated in the data frame form; receiving, by the first station, a response frame from the second station in response to the request frame, the response frame indicating whether the wakeup schedule in the request frame is accepted or rejected by the second station, wherein the response frame is encapsulated in the data frame form; and entering, by the first station, a power save mode based on the wakeup schedule when the response frame indicates an acceptance of the wakeup schedule in the request frame.
Network node in a telecommunication network, said network node comprising: - a receiver for receiving a server handshake message from a further network node; - a processor configured to process said server handshake message, said server handshake message comprising: - a first encryption algorithm indicator indicative of a first encryption algorithm proposed for communication from a communication device to said further network node, and - a second encryption algorithm indicator indicative of a second encryption algorithm proposed for communication from said further network node to said communication device, said processor being configured to check either said first or said second encryption algorithm indicator, and to block communication between said communication device and said further network node if said checked encryption algorithm indicator is indicating that communication is encrypted. - a receiver for receiving a server handshake message from a further network node; - a processor configured to process said server handshake message, said server handshake message comprising: - a first encryption algorithm indicator indicative of a first encryption algorithm proposed for communication from a communication device to said further network node, and - a second encryption algorithm indicator indicative of a second encryption algorithm proposed for communication from said further network node to said communication device, - a first encryption algorithm indicator indicative of a first encryption algorithm proposed for communication from a communication device to said further network node, and - a second encryption algorithm indicator indicative of a second encryption algorithm proposed for communication from said further network node to said communication device,
Screw-in tool comprising a tool head and a tool shank with an external thread and with a support region arranged between the tool head and the external thread, characterized in that the support region is formed by a first conical abutment surface with a cone angle of 140° to 179°, which adjoins the tool head, and by a second conical abutment surface with a cone angle of 1° to 90°, wherein the cones defining the conical abutment surfaces (6, 8) point in the same direction.
A method for scheduling packet transmissions in a multi-channel wireless communications system, comprising: receiving via an uplink spatial division multiple access, SDMA, transmission from at least one wireless network node an identification of channels available for communicating simultaneously with a plurality of wireless network nodes; determining a schedule for packet transmission for the plurality of wireless network nodes based on the identification of the available channels; transmitting the schedule to each of the plurality of wireless network nodes; and transmitting downlink packets to at least some of the wireless network nodes on at least one of the identified available channels simultaneously via respective downlink SDMA transmissions according to the transmitted schedule. receiving via an uplink spatial division multiple access, SDMA, transmission from at least one wireless network node an identification of channels available for communicating simultaneously with a plurality of wireless network nodes; determining a schedule for packet transmission for the plurality of wireless network nodes based on the identification of the available channels; transmitting the schedule to each of the plurality of wireless network nodes; and transmitting downlink packets to at least some of the wireless network nodes on at least one of the identified available channels simultaneously via respective downlink SDMA transmissions according to the transmitted schedule.
A solid-state battery (140, 520, 628) comprising: a separator comprising: an ion conductive filler powder comprising one of LLTO, LLZO, Li 10 GeP 2 S 12 and LiSiCON; and an inorganic solid electrolyte characterized in that the inorganic solid electrolyte comprises one of LiPON, Li 2 O-MoO 3, Li 2 O-WO 3, LiBr-Li 2 O-WO 3 and LiBr-Li 2 O-B 2 O 3 -P 2 O 5, and the ion conductive filler power is bonded together by the inorganic solid electrolyte by sintering at a temperature lower than 600°C. a separator comprising: an ion conductive filler powder comprising one of LLTO, LLZO, Li 10 GeP 2 S 12 and LiSiCON; and an inorganic solid electrolyte characterized in that the inorganic solid electrolyte comprises one of LiPON, Li 2 O-MoO 3, Li 2 O-WO 3, LiBr-Li 2 O-WO 3 and LiBr-Li 2 O-B 2 O 3 -P 2 O 5, and the ion conductive filler power is bonded together by the inorganic solid electrolyte by sintering at a temperature lower than 600°C. an ion conductive filler powder comprising one of LLTO, LLZO, Li 10 GeP 2 S 12 and LiSiCON; and an inorganic solid electrolyte
A die (200, 302, 304) for a printhead, comprising: a plurality of fluid feed holes disposed in a line parallel to a longitudinal axis of the die (200, 302, 304); a plurality of fluidic actuators disposed in a line parallel to the plurality of fluid feed holes; and a crack detector trace routed between each of the plurality of fluid feed holes, characterised in that the trace between the fluid feed holes is made from a brittle material. a plurality of fluid feed holes disposed in a line parallel to a longitudinal axis of the die (200, 302, 304); a plurality of fluidic actuators disposed in a line parallel to the plurality of fluid feed holes; and a crack detector trace routed between each of the plurality of fluid feed holes, characterised in that the trace between the fluid feed holes is made from a brittle material.
System of a plurality of electrical plug connector modules and an electrically conductive/holding frame for joint insertion into a modular plug connector, wherein the plug connector modules can be received and fixed together in the holding frame, wherein the holding frame can in turn be inserted into a plug connector housing, wherein one of the electrical plug connector modules is formed from an insulating housing and comprises at least one electrical contact, wherein the housing comprises fixing means that are used for fixing the electrical plug connector module in the modular plug connector, and wherein the electrical contact is received in the housing and comprises a plugging side and also a connecting side that can be accessed from a plugging side or connecting side of the housing, characterized in that the electrical plug connector module comprises an electrical contact means that is connected to the electrical contact in an electrically conductive manner and is guided to the outer side of the housing, wherein the contact means is embodied on the outer side of the housing as a resilient region, wherein the resilient region of the contact means contacts the holding frame in an electrically conductive manner when inserting the electrical plug connector module into the holding frame.
A microscope system, comprising: a surgical microscope including an operating device (104, 204) with at least one control element, wherein said at least one control element is configured to be operated by a user to provide at least one control function for operating the surgical microscope, a remote operating unit (110, 210) configured to be spatially separated from the surgical microscope, wherein the remote operating unit (110, 210) has at least one remote control element configured to be operated by the user or a further user to provide said at least one control function, wherein the at least one control element comprises right and left handles (220, 222), characterized in that: the at least one remote control element comprises right and left handles (220', 222') corresponding to the right and left handles (220, 222) formed on the surgical microscope, wherein the remote operating unit (110, 210) comprises a tablet computer provided with the right and left handles (220', 222'), and wherein the remote operating unit (110,210) comprises a tilt sensor configured to detect tilting of the at least one remote control element, said control function provided by tilting being a corresponding tilting of the surgical microscope. a surgical microscope including an operating device (104, 204) with at least one control element, wherein said at least one control element is configured to be operated by a user to provide at least one control function for operating the surgical microscope, a remote operating unit (110, 210) configured to be spatially separated from the surgical microscope, wherein the remote operating unit (110, 210) has at least one remote control element configured to be operated by the user or a further user to provide said at least one control function, wherein the at least one control element comprises right and left handles (220, 222), characterized in that: the at least one remote control element comprises right and left handles (220', 222') corresponding to the right and left handles (220, 222) formed on the surgical microscope, wherein the remote operating unit (110, 210) comprises a tablet computer provided with the right and left handles (220', 222'), and wherein the remote operating unit (110,210) comprises a tilt sensor configured to detect tilting of the at least one remote control element, said control function provided by tilting being a corresponding tilting of the surgical microscope. the at least one remote control element comprises right and left handles (220', 222') corresponding to the right and left handles (220, 222) formed on the surgical microscope, wherein the remote operating unit (110, 210) comprises a tablet computer provided with the right and left handles (220', 222'), and wherein the remote operating unit (110,210) comprises a tilt sensor configured to detect tilting of the at least one remote control element, said control function provided by tilting being a corresponding tilting of the surgical microscope.
A constant-power supply apparatus which includes: a transformer having a primary winding and a secondary winding, whereby in use, magnetic flux generated by a varying primary voltage applied to the primary winding induces a varying secondary voltage on the secondary winding; and a toroidal transformer core over which said primary winding and secondary winding are applied, wherein at least a portion of the secondary winding is spatially separated from the primary winding; characterised in that the apparatus further comprises a pair of magnetic shunts, each of the pair of magnetic shunts being located on opposite sides of the toroidal core and arranged to provide a diversion path for magnetic flux generated by the primary winding, which diverts magnetic flux from the secondary winding; and a control coil provided in association with one of the pair of magnetic shunts, the control coil being adapted to dynamically modify the reluctance of the magnetic shunt associated with it, thereby dynamically modifying the maximum output current capable of being delivered by the power supply. a transformer having a primary winding and a secondary winding, whereby in use, magnetic flux generated by a varying primary voltage applied to the primary winding induces a varying secondary voltage on the secondary winding; and a toroidal transformer core over which said primary winding and secondary winding are applied, wherein at least a portion of the secondary winding is spatially separated from the primary winding; characterised in that the apparatus further comprises a pair of magnetic shunts, each of the pair of magnetic shunts being located on opposite sides of the toroidal core and arranged to provide a diversion path for magnetic flux generated by the primary winding, which diverts magnetic flux from the secondary winding; and a control coil provided in association with one of the pair of magnetic shunts, the control coil being adapted to dynamically modify the reluctance of the magnetic shunt associated with it, thereby dynamically modifying the maximum output current capable of being delivered by the power supply.
mechanical coolant pump for an internal combustion engine, comprising an impeller pump wheel pumping the liquid coolant incoming in axial direction radially into an outlet volute, a pump housing defining the outlet volute, a first outlet channel and a separate fluldically parallel second outlet channel, an outlet valve arrangement fluidically before the first outlet channel and the second outlet channel, and a first valve opening of the first outlet channel and a second valve opening of the second outlet channel, whereby the outlet valve arrangement comprises an integral valve body with a first retaining section and a second retaining section, the valve body being pivotable between an open position and a closed position, in the closed position of the valve body the first retaining section completely closes the first valve opening and the second retaining section only partially closes the second valve opening, so that the second valve opening remains partially open, the mechanical coolant pump being characterised in that the valve body is provided with a circular disk body (28, 32) at one axial end of the valve body, the valve body being pivotable around the center pivot axis of the circular disk body 28, 32), both retaining sections (24, 26) define a circle segment of the circle defined by the circular disk body (28, 32), and the pump housing is provided with a recess for housing at least one retaining section (24, 26) in the open valve position.
A method for obtaining target cells from a fluid, cell-containing sample, the method comprising: a) providing a fluid, cell-containing sample; b) passing the sample through a three-dimensional matrix, wherein the matrix comprises an inner core and an outer layer disposed around the inner core, the inner core comprising a nondegradable substrate, the outer layer composed of a degradable polymer and comprising a capture ligand attached thereto, wherein the capture ligand has affinity for a target cell in the sample; and c) recovering target cells retained by said matrix by substantially degrading the outer layer of the matrix by contacting the matrix with a degradative enzyme. a) providing a fluid, cell-containing sample; b) passing the sample through a three-dimensional matrix, wherein the matrix comprises an inner core and an outer layer disposed around the inner core, the inner core comprising a nondegradable substrate, the outer layer composed of a degradable polymer and comprising a capture ligand attached thereto, wherein the capture ligand has affinity for a target cell in the sample; and c) recovering target cells retained by said matrix by substantially degrading the outer layer of the matrix by contacting the matrix with a degradative enzyme.
An air compressor comprising: a compression machine configured to generate compression air; a main tank configured to store therein the compression air; an extension tank configured to store therein the compression air; a connection pipeline provided between the main tank and the extension tank to be removably inserted thereto; and a fastening unit configured to releasably connect the main tank and the extension tank with each other characterized in that: the connection pipeline includes a hose having flexibility; the fastening unit includes: an engaging unit attached to the main tank; and an engaged unit provided to the extension tank and configured to be engaged with the engaging unit, and wherein the engaging unit and the engaged unit are releasably engaged with each other; the engaging unit includes: an attachment member provided to the main tank; and a shock absorbing member surrounding the attachment member, and wherein the shock absorbing member is used as a leg portion of a main body of the air compressor. a compression machine configured to generate compression air; a main tank configured to store therein the compression air; an extension tank configured to store therein the compression air; a connection pipeline provided between the main tank and the extension tank to be removably inserted thereto; and a fastening unit configured to releasably connect the main tank and the extension tank with each other the connection pipeline includes a hose having flexibility; the fastening unit includes: an engaging unit attached to the main tank; and an engaged unit provided to the extension tank and configured to be engaged with the engaging unit, and an engaging unit attached to the main tank; and an engaged unit provided to the extension tank and configured to be engaged with the engaging unit, and wherein the engaging unit and the engaged unit are releasably engaged with each other; the engaging unit includes: an attachment member provided to the main tank; and a shock absorbing member surrounding the attachment member, and an attachment member provided to the main tank; and a shock absorbing member surrounding the attachment member, and wherein the shock absorbing member is used as a leg portion of a main body of the air compressor.
Method for reclaiming at least one substance from an insulation medium of an electrical apparatus for the generation, transmission, distribution and/or usage of electrical energy, the insulation medium comprising an organofluorine compound and at least one further component in gaseous phase, the method comprising the subsequent steps of: a) transferring an initial gas mixture containing the organofluorine compound and at least one further component of the insulation medium out of an insulation space of the electrical apparatus into a substance reclaiming device, b) liquefying the organofluorine compound in the substance reclaiming device by b1) compressing the initial gas mixture, and b2) cooling the compressed initial gas mixture down to a temperature at which the organofluorine compound liquefies, c) separating the liquefied organofluorine compound from the remaining gas comprising the at least one remaining component of the initial gas mixture. a) transferring an initial gas mixture containing the organofluorine compound and at least one further component of the insulation medium out of an insulation space of the electrical apparatus into a substance reclaiming device, b) liquefying the organofluorine compound in the substance reclaiming device by b1) compressing the initial gas mixture, and b2) cooling the compressed initial gas mixture down to a temperature at which the organofluorine compound liquefies, b1) compressing the initial gas mixture, and b2) cooling the compressed initial gas mixture down to a temperature at which the organofluorine compound liquefies, c) separating the liquefied organofluorine compound from the remaining gas comprising the at least one remaining component of the initial gas mixture.
A vehicle having a wheel or endless track driven undercarriage supporting a lifting arm, wherein the undercarriage of the vehicle is provided with formations on a vertical lateral surface to engage with mating formations on a vertical lateral surface of a removable counterweight, characterised by the formations being shaped to engage by sliding the counterweight in a vertical plane relative to the undercarriage and, when engaged, to support the weight of the counterweight vertically and prevent separation of the counterweight from the undercarriage, the formations being positioned to receive a removable counterweight entirely at one side of said undercarriage and wherein each counterweight is additionally provided with means of attachment so that it may be mounted and removed from the undercarriage using the lifting arm of the vehicle.