mhurhangee/ep-ind-claims huggingface dataset:
A full-duplex communication method in a high efficiency wireless local area network (WLAN), the full-duplex communication method being performed by an access point in a WLAN network, the method comprising: transmitting to at least one station, a trigger frame including Resource Unit allocation information of an Orthogonal Frequency Division Multiple Access (OFDMA) communication; receiving a High Efficiency Trigger Based Physical Protocol Data Unit (HE TB PPDU) from the at least one STA in a time period determined on the basis of the trigger frame through the allocated RU; and transmitting a High Efficiency Trigger Based Full Duplex Physical Protocol Data Unit (HE TB FD PPDU) to the at least one STA in the time period, wherein the HE TB PPDU and the HE TB FD PPDU are transmitted simultaneously, wherein the HE TB FD PPDU includes a null portion including a signal field in which no signal is transmitted or including a signal field for transmitting information that does not affect the demodulation processing in the HE TB PPDU, and wherein the HE TB PPDU is divided into a pre-HE modulated field and an HE modulated field, the pre-HE modulated field of the HE TB PPDU being aligned with the null portion of the HE TB FD PPDU, the pre-HE modulated field including a non-HE portion including a L-short training field STF and L-long training field LTF. transmitting to at least one station, a trigger frame including Resource Unit allocation information of an Orthogonal Frequency Division Multiple Access (OFDMA) communication; receiving a High Efficiency Trigger Based Physical Protocol Data Unit (HE TB PPDU) from the at least one STA in a time period determined on the basis of the trigger frame through the allocated RU; and transmitting a High Efficiency Trigger Based Full Duplex Physical Protocol Data Unit (HE TB FD PPDU) to the at least one STA in the time period, wherein the HE TB PPDU and the HE TB FD PPDU are transmitted simultaneously, wherein the HE TB FD PPDU includes a null portion including a signal field in which no signal is transmitted or including a signal field for transmitting information that does not affect the demodulation processing in the HE TB PPDU, and wherein the HE TB PPDU is divided into a pre-HE modulated field and an HE modulated field, the pre-HE modulated field of the HE TB PPDU being aligned with the null portion of the HE TB FD PPDU, the pre-HE modulated field including a non-HE portion including a L-short training field STF and L-long training field LTF.
A method for a base station for communicating with a user equipment, UE in a wireless network, implemented by a base station, comprising: transmitting assignment information to the UE, wherein the assignment information comprises a pair of channelization codes assigned to the UE, each channelization code being respectively designated for representing an acknowledge-correct, ACK, or acknowledge-error, NACK, condition and is used by the UE to derive a first or second channelization code; transmitting a burst signal to the UE; and receiving a signal from the UE; said method characterized by: determining from the received signal whether an acknowledge-correct, ACK, acknowledge-error, NACK, and other uplink control information is indicated by the received signal, wherein the other uplink control information is modulated onto the selected channelization code. transmitting assignment information to the UE, wherein the assignment information comprises a pair of channelization codes assigned to the UE, each channelization code being respectively designated for representing an acknowledge-correct, ACK, or acknowledge-error, NACK, condition and is used by the UE to derive a first or second channelization code; transmitting a burst signal to the UE; and receiving a signal from the UE; said method characterized by: determining from the received signal whether an acknowledge-correct, ACK, acknowledge-error, NACK, and other uplink control information is indicated by the received signal, wherein the other uplink control information is modulated onto the selected channelization code.
A method of preparing a reinforced refractory joint between refractory sections of a vessel used for containing molten metal, the method comprising: introducing a mesh body made of metal wires into a gap between metal-contacting surfaces of adjacent refractory sections (10A, 10B) of a metal containing vessel so that the mesh body is positioned beneath the metal contacting surfaces, and covering the mesh body with a layer of moldable refractory material to seal the gap between the metal-contacting surfaces, wherein a groove is formed in at least one of the trough sections (10A, 10B) adjacent the gap, and the mesh body and the moldable refractory material are introduced into the groove. introducing a mesh body made of metal wires into a gap between metal-contacting surfaces of adjacent refractory sections (10A, 10B) of a metal containing vessel so that the mesh body is positioned beneath the metal contacting surfaces, and covering the mesh body with a layer of moldable refractory material to seal the gap between the metal-contacting surfaces, wherein a groove is formed in at least one of the trough sections (10A, 10B) adjacent the gap, and the mesh body and the moldable refractory material are introduced into the groove.
A transducer, comprising: a transducer body having a first major side; an adaptor for coupling to a prosthesis; characterized in that a beam extends from the major side of the body to support each of the anterior, posterior, left and right sides of the adaptor, each beam (116a, 116b, 116c, 116d) having a strain-measuring device on each of opposite side surfaces, wherein the strain-measuring devices (118a, 118b, 118e, 118f, 118c, 118d, 118g, 118h) are arranged to measure moments in the anterior/posterior plane and the right/left plane, while reducing measuring moments in the transverse plane. a transducer body having a first major side; an adaptor for coupling to a prosthesis; characterized in that a beam extends from the major side of the body to support each of the anterior, posterior, left and right sides of the adaptor, each beam (116a, 116b, 116c, 116d) having a strain-measuring device on each of opposite side surfaces, wherein the strain-measuring devices (118a, 118b, 118e, 118f, 118c, 118d, 118g, 118h) are arranged to measure moments in the anterior/posterior plane and the right/left plane, while reducing measuring moments in the transverse plane.
A method of supporting inter-system handover in an Evolved Packet Core, EPC, network at an E-UTRAN access gateway, comprising: receiving one or more measurement reports from a user equipment, UE, for one or more base stations in a first radio access network, RAN, and a second RAN; initiating handover of the UE from the first RAN to the second RAN based on the measurement reports; sending a message requesting handover of the UE from the first RAN to the second RAN, the message being sent to a Inter Access System network entity in the EPC network for the first RAN communicating with a Serving GPRS Support Node, SGSN, for the second RAN via a Gn interface said network entity configured to emulate another SGSN recognized by the SGSN; exchanging messages with the SGSN via the Inter Access System network entity thereby treating the intersystem handover of the UE from the first RAN to the second RAN as an inter-SGSN handover; sending a message to the UE to perform handover from the first RAN to the second RAN; receiving a message from the SGSN indicating completion of the relocation of the UE; and releasing radio resources for the UE, wherein the second RAN is a Universal Terrestrial Radio Access Network, UTRAN and the first RAN is an Evolved UTRAN, E-UTRAN,. receiving one or more measurement reports from a user equipment, UE, for one or more base stations in a first radio access network, RAN, and a second RAN; initiating handover of the UE from the first RAN to the second RAN based on the measurement reports; sending a message requesting handover of the UE from the first RAN to the second RAN, the message being sent to a Inter Access System network entity in the EPC network for the first RAN communicating with a Serving GPRS Support Node, SGSN, for the second RAN via a Gn interface said network entity configured to emulate another SGSN recognized by the SGSN; exchanging messages with the SGSN via the Inter Access System network entity thereby treating the intersystem handover of the UE from the first RAN to the second RAN as an inter-SGSN handover; sending a message to the UE to perform handover from the first RAN to the second RAN; receiving a message from the SGSN indicating completion of the relocation of the UE; and releasing radio resources for the UE, wherein the second RAN is a Universal Terrestrial Radio Access Network, UTRAN and the first RAN is an Evolved UTRAN, E-UTRAN,.
An audio, control and power distribution system, comprising: one or more external audio devices; an input power interface for receiving external mains power and for providing primary power for the one or more external audio devices based on the external mains power; a plurality of input audio interfaces for receiving primary audio signals and secondary audio signals; an output interface provided for external audio devices, wherein said output interface is configured to provide the primary power, the audio signals, and a control signal to the external audio devices; a transceiver for transmitting and/or receiving the control signal; and a processor operatively coupled to the transceiver for generating and/or processing the control signal; an output interface for delivering the primary power, backup power, primary audio signals, secondary audio signals, and a control signal to each external audio device; and a backup power source for generating the backup power;wherein the primary power, backup power, primary audio signals, secondary audio signals, and characterized in that control signal are provided such that the external audio devices are capable of: switching from the primary power to the backup power in the event of failure of the primary power; and switching from the primary audio signals to the secondary audio signals in the event of failure of the primary audio signals. one or more external audio devices; an input power interface for receiving external mains power and for providing primary power for the one or more external audio devices based on the external mains power; a plurality of input audio interfaces for receiving primary audio signals and secondary audio signals; an output interface provided for external audio devices, wherein said output interface is configured to provide the primary power, the audio signals, and a control signal to the external audio devices; a transceiver for transmitting and/or receiving the control signal; and a processor operatively coupled to the transceiver for generating and/or processing the control signal; an output interface for delivering the primary power, backup power, primary audio signals, secondary audio signals, and a control signal to each external audio device; and a backup power source for generating the backup power;wherein the primary power, backup power, primary audio signals, secondary audio signals, and control signal are provided such that the external audio devices are capable of: switching from the primary power to the backup power in the event of failure of the primary power; and switching from the primary audio signals to the secondary audio signals in the event of failure of the primary audio signals. switching from the primary power to the backup power in the event of failure of the primary power; and switching from the primary audio signals to the secondary audio signals in the event of failure of the primary audio signals.
A breast measuring device for determining bra size comprising a band size measuring tape (3, 43), the band size measuring tape (3, 43) comprising a flexible tape having indicia printed on one side thereof indicative of a plurality of band sizes, and in which there is provided a first buckle mounted on one end of the band size measuring tape (3, 43) through which the other end of the band size measuring tape may be led thereby forming a loop with the band size measuring tape to surround the torso of a person being measured and means (17, 29, 57) to releasably secure the band size measuring tape in the looped configuration, characterised in that there is provided a cup size measuring tape (5, 7) mounted on and extending substantially perpendicular to the band size measuring tape, the cup size measuring tape (5, 7) comprising a flexible tape capable of following the contour of a breast and having indicia printed on one side thereof indicative of a plurality of cup sizes, and in which there is provided an elasticated portion (15, 55) to permit limited expansion and contraction of the circumference of the loop in the band size measuring tape (3, 43) when secured in a looped configuration, the elasticated portion (15, 55) has attached thereto the means to releasably secure the band size measuring tape in the looped configuration, the elasticated portion (15, 55) is mounted on the band size measuring tape (3, 43) intermediate the ends of the band size measuring tape and adjacent to one end thereof, and in which the means to releasably secure the band size measuring tape in the looped configuration comprises a pair of complementary locking members (17, 29) and in which the elasticated portion has one part of the pair of complementary locking members mounted thereon for engagement of the other part of the pair of complementary locking members which in turn is mounted on the band size measuring tape adjacent the other end of the band size measuring tape.
A polyethylene composition comprising: a granular polyethylene resin characterized by a resin solid density of from 0.955 to 0.96 g/cm 3 measured according to ASTM D-792, a granular resin total void volume (V total) of equal to or greater than 0.9 cm 3 /g, a ratio of intraparticle porosity to interparticle porosity of from 0.33 to 0.67, a granular resin settled bulk density (SBD PE) of from 435 kg/m 3 to 495 kg/m 3 measured using ASTM D1895 - 96 el Test Method A, and a total resin porosity, Φ total, of equal to or greater than 0.45, wherein the granular polyethylene resin is a high molecular weight resin characterized by a melt index, I 21, of from 2 to 4 dg/min measured in accordance with ASTM D-1238-04 Condition 190°C/21.6 kg and a ratio I 21 /I 5 of from 20 to 40, wherein I 5 is measured in accordance with ASTM D-1238-04 Condition 190°C/5 kg.
A system for determining a concentration of one or more analytes in whole blood; the system comprising: a transparent channel configured to carry whole blood; a light source configured to emit light on the channel; an optical module associable with the channel, and an actuation module, wherein the actuation module comprises one or more electrodes associated with the channel, wherein the one or more electrodes are capable of generating a cell-free plasma layer from the whole blood in the center of the channel when the one or more electrodes are subjected to an electric field; wherein the optical module is configured to determine - in a single device - blood gas concentrations in unseparated whole blood in the channel by capturing light transmitted from the channel, and to compute a change in the intensity of the transmitted light, wherein the change in the intensity correlates to the concentration of the blood gas in whole blood, and free hemoglobin concentration in the cell-free plasma layer in the channel by capturing light transmitted from the channel, and to compute a change in an intensity of the transmitted light, wherein the change in the intensity correlates to free hemoglobin in the whole blood. a transparent channel configured to carry whole blood; a light source configured to emit light on the channel; an optical module associable with the channel, and an actuation module, wherein the actuation module comprises one or more electrodes associated with the channel, wherein the one or more electrodes are capable of generating a cell-free plasma layer from the whole blood in the center of the channel when the one or more electrodes are subjected to an electric field; wherein the optical module is configured to determine - in a single device - blood gas concentrations in unseparated whole blood in the channel by capturing light transmitted from the channel, and to compute a change in the intensity of the transmitted light, wherein the change in the intensity correlates to the concentration of the blood gas in whole blood, and free hemoglobin concentration in the cell-free plasma layer in the channel by capturing light transmitted from the channel, and to compute a change in an intensity of the transmitted light, wherein the change in the intensity correlates to free hemoglobin in the whole blood.
An infant supporting chair comprising: a frame; a seat movably supported on the frame; a unitary tray (400,402); and a cooperative guidance and latching system configured: to magnetically pull the unitary tray toward at least one latching position with the unitary tray in range of the at least one latching position relative to the seat, releasably secure the unitary tray to the seat with the unitary tray engaged to the at least one latching position, and slidably position the unitary tray relative to the seat with the unitary tray partially disengaged from the at least one latching position. a frame; a seat movably supported on the frame; a unitary tray (400,402); and a cooperative guidance and latching system configured: to magnetically pull the unitary tray toward at least one latching position with the unitary tray in range of the at least one latching position relative to the seat, releasably secure the unitary tray to the seat with the unitary tray engaged to the at least one latching position, and slidably position the unitary tray relative to the seat with the unitary tray partially disengaged from the at least one latching position. to magnetically pull the unitary tray toward at least one latching position with the unitary tray in range of the at least one latching position relative to the seat, releasably secure the unitary tray to the seat with the unitary tray engaged to the at least one latching position, and slidably position the unitary tray relative to the seat with the unitary tray partially disengaged from the at least one latching position.
A screen apparatus for use in sports training or sports skills development, the screen apparatus including a plurality of screen members and a support means for supporting the screen members in a use condition, each the screen members at least temporarily attached relative to the support means, characterized in that in use, the screen members define a screen until struck by an object at which time at least one of the screen members is at least partially dislodged to allow passage of the object in a substantially uninhibited manner, in that the screen apparatus is positionable between a trainee and an object to decrease visibility of the object by the trainee and in that the screen apparatus is adapted to let a propelled object pass through to simulate a sports situation such that the trainee has less time to react to the object.
Industrial truck with a lifting apparatus, a lifting frame, a control valve device, a pressure medium line, a container, a container line and an outlet line, wherein the lifting apparatus has a load-bearing means arranged liftably and lowerably on a lifting frame, wherein, for the lifting and lowering of the load-bearing means, a hydraulic lifting cylinder device (11; 11a, 11b) is provided which is actuable by means of the control valve device, wherein the control valve device is connected to the pressure medium line, which is guided to the lifting cylinder device (11; 11a, 11b), and to the container line, which is guided to a container, and wherein the control valve device has a lowered position, in which the pressure medium line is connected to the container line, wherein an outlet flow control valve is arranged in the container line, wherein a switching valve is arranged in the container line between the control valve device and the outlet flow control valve, said switching valve, in a first switching position, activating the outlet flow control valve arranged in the container line such that, in the lowering mode of the lifting cylinder device (11; 11a, 11b), the pressure medium flow flows out from the lifting cylinder device (11; 11a, 11b) to the container via the outlet flow control valve arranged in the container line, and said switching valve, in a second switching position, deactivating the outlet flow control valve arranged in the container line such that, in the lowering mode of the lifting cylinder device (11; 11a, 11b), the pressure medium flow flows out from the lifting cylinder device (11; 11a, 11b) to the container bypassing the outlet flow control valve arranged in the container line, characterized in that the industrial truck is furthermore provided with an electronic control device, a spring device and an electric actuating device, and in that the switching valve is configured as a triple-connection two-position valve which is connected by a first connection to that portion of the container line which is connected to the control valve device, is connected at a second connection to that portion of the container line which is connected to the outlet flow control valve, and is connected at a third connection to an outlet line which is led to the container, wherein, in the first switching position, the switching valve connects the first connection to the second connection and the third connection is shut off, and wherein, in the second switching position, the switching valve connects the first connection to the third connection and the second connection is shut off, wherein the switching valve is actuated by means of the electronic control device, and wherein the switching valve is actuable into the first switching position by the spring device and is actuable into the second switching position by means of the electric actuating device, in particular a switching magnet which is operatively connected to the electronic control device.
A mobile lifting platform for raising and lowering loads, vehicles, or the like, including a base frame, a lifting means arranged thereon by which a load receiving member provided thereon may be moved up and down, a running gear arranged on the base frame which comprises at least two rollers, and an actuating device which comprises at least one controllable steering roller, and, further, an adjustment mechanism by means of which the running gear is transferable from a load receiving position, which is retracted with respect to the base frame, to a moving position, which is extended with respect to the base frame, each roller being accommodated in a roller adjuster which is arranged on the base frame and by means of which the roller may be adjusted in the direction of travel, characterised in that, disregarding a drive direction of the adjustment mechanism acting upon the roller adjuster, the roller of the roller adjuster may be extended from a load receiving position to a moving position only in a vertical direction with respect to the base frame.
A nucleic acid consisting of a sequence selected from the group of, a) SEQ ID NO: 1 and, b) a sequence that is at least 80 % identical to SEQ ID NO: 1, wherein said nucleic acid that is at least 80 % identical to SEQ ID NO: 1 has at least 2 terminal 3'-prime nucleotides that are identical to the 2 terminal 3'-prime nucleotides of SEQ ID NO: 1 and, wherein, said nucleic acid may also optionally be 1 to 5 nucleotides shorter or longer at its 5' end. a) SEQ ID NO: 1 and, b) a sequence that is at least 80 % identical to SEQ ID NO: 1, wherein said nucleic acid that is at least 80 % identical to SEQ ID NO: 1 has at least 2 terminal 3'-prime nucleotides that are identical to the 2 terminal 3'-prime nucleotides of SEQ ID NO: 1 and, wherein, said nucleic acid may also optionally be 1 to 5 nucleotides shorter or longer at its 5' end.