mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication device (AP1, S1, S2) in a wireless communication system which transmits a wireless frame to be transmitted within a predetermined time period, the wireless communication device (AP1, S1, S2) comprising: a transmission unit configured to transmit the wireless frame; a carrier sense unit configured to check whether or not any carrier is being transmitted from other wireless communication devices; and a control unit for controlling transmission of the wireless frame; characterized by a transmission time calculating unit configured to calculate a necessary transmission time (N1, N2) which is an estimated time period taken from start of the transmission of the wireless frame to completion of the transmission; a time-out time calculating unit configured to calculate a time-out time (T1, T2) from the predetermined time period and the necessary transmission time (N1, N2); and a frame transmission determining unit configured to compare a carrier detection time (C1, C2) with the time-out time (T1, T2) to determine whether to transmit or discard the wireless frame, and notify the control unit of a result of the determination, the carrier detection time (C1, C2) being a time period during which a carrier notified from the carrier sense unit is detected; wherein the control unit is configured to, based on the result of the determination notified from the frame transmission determining unit, notify the transmission unit that the wireless frame is to be transmitted when the frame transmission determining unit determines to transmit the wireless frame, and discard the wireless frame when the frame transmission determining unit determines to discard the wireless frame. a transmission unit configured to transmit the wireless frame; a carrier sense unit configured to check whether or not any carrier is being transmitted from other wireless communication devices; and a control unit for controlling transmission of the wireless frame; characterized by a transmission time calculating unit configured to calculate a necessary transmission time (N1, N2) which is an estimated time period taken from start of the transmission of the wireless frame to completion of the transmission; a time-out time calculating unit configured to calculate a time-out time (T1, T2) from the predetermined time period and the necessary transmission time (N1, N2); and a frame transmission determining unit configured to compare a carrier detection time (C1, C2) with the time-out time (T1, T2) to determine whether to transmit or discard the wireless frame, and notify the control unit of a result of the determination, the carrier detection time (C1, C2) being a time period during which a carrier notified from the carrier sense unit is detected; wherein the control unit is configured to, based on the result of the determination notified from the frame transmission determining unit, notify the transmission unit that the wireless frame is to be transmitted when the frame transmission determining unit determines to transmit the wireless frame, and discard the wireless frame when the frame transmission determining unit determines to discard the wireless frame.
A washing machine, comprising: a controller and a detergent dispenser, wherein the detergent dispenser comprises: a first branch pipe, a first cam, an impeller and a first liquid box, wherein the controller is configured for controlling the first branch pipe to be opened to admit water when it is detected that a working state of the washing machine satisfies a first condition, and controlling the first branch pipe to be closed when it is detected that a working state of the detergent dispenser satisfies a second condition; the impeller is coaxially connected to the first cam, and is adapted for driving the first cam to rotate in the first direction under the impact of water flow in the first branch pipe; characterized in that the washing machine also comprises a mixing chamber; in that the detergent dispenser also comprises a first piston chamber and a first piston; in that a plurality of first pawls are disposed on the first cam, and enable the first cam to rotate in a first direction; in that the first piston chamber is connected to the first liquid box and the mixing chamber separately; and in that the first piston is located in the first piston chamber, and is connected to the first cam, and when the first cam rotates in the first direction, the first piston reciprocates in the first piston chamber, to draw a first liquid in the first liquid box into the first piston chamber, and squeeze the first liquid drawn into the first piston chamber into the mixing chamber. the controller is configured for controlling the first branch pipe to be opened to admit water when it is detected that a working state of the washing machine satisfies a first condition, and controlling the first branch pipe to be closed when it is detected that a working state of the detergent dispenser satisfies a second condition; the impeller is coaxially connected to the first cam, and is adapted for driving the first cam to rotate in the first direction under the impact of water flow in the first branch pipe; characterized in that the washing machine also comprises a mixing chamber; in that the detergent dispenser also comprises a first piston chamber and a first piston; in that a plurality of first pawls are disposed on the first cam, and enable the first cam to rotate in a first direction; in that the first piston chamber is connected to the first liquid box and the mixing chamber separately; and in that the first piston is located in the first piston chamber, and is connected to the first cam, and when the first cam rotates in the first direction, the first piston reciprocates in the first piston chamber, to draw a first liquid in the first liquid box into the first piston chamber, and squeeze the first liquid drawn into the first piston chamber into the mixing chamber.
A coating apparatus comprising: a coating chamber for applying a plastic coating material to a wire passing through the coating chamber; an elongate injection channel for receiving plastic coating material input to the coating apparatus at a first end of the injection channel through an inlet portion, and supplying the received plastic coating material to the coating chamber that is arranged at a second end of the injection channel, wherein the inlet portion intersects a side wall of the elongate injection channel, the side wall extending between the first end and the second end of the elongate injection channel, the injection channel comprising a first cylindrical section at the first end of the injection channel and a second cylindrical section at the second end of the injection channel, wherein the diameter of the first cylindrical section is greater than the second cylindrical section; a piston that is moveable along the length of the first cylindrical section of the injection channel, the piston configured to pressurise the contents of the injection channel and coating chamber, the applied pressure causing the plastic coating material to flow down the injection channel; and a number of heating elements (109, 111) controllable to progressively raise the temperature of the plastic coating material as the coating material flows through the coating apparatus to achieve a desired viscosity of the plastic coating material within the coating chamber. a coating chamber for applying a plastic coating material to a wire passing through the coating chamber; an elongate injection channel for receiving plastic coating material input to the coating apparatus at a first end of the injection channel through an inlet portion, and supplying the received plastic coating material to the coating chamber that is arranged at a second end of the injection channel, wherein the inlet portion intersects a side wall of the elongate injection channel, the side wall extending between the first end and the second end of the elongate injection channel, the injection channel comprising a first cylindrical section at the first end of the injection channel and a second cylindrical section at the second end of the injection channel, wherein the diameter of the first cylindrical section is greater than the second cylindrical section; a piston that is moveable along the length of the first cylindrical section of the injection channel, the piston configured to pressurise the contents of the injection channel and coating chamber, the applied pressure causing the plastic coating material to flow down the injection channel; and a number of heating elements (109, 111) controllable to progressively raise the temperature of the plastic coating material as the coating material flows through the coating apparatus to achieve a desired viscosity of the plastic coating material within the coating chamber.
An air intake for a turboprop gas turbine engine of an aircraft, the air intake being configured to channel air pushed aft by a propeller coupled to a turboprop gas turbine engine toward an engine inlet of the turboprop gas turbine engine, the air intake having a reference axis that is substantially coaxial with a longitudinal axis of the gas turbine engine when the air intake is installed on the gas turbine engine, the air intake comprising: an intake inlet for receiving a flow of air therein from the air pushed aft by the propeller, the intake inlet being configured to be generally forward-facing relative to the gas turbine engine and offset radially outwardly relative to the reference axis; an intake duct in fluid communication with the intake inlet, the intake duct being configured to channel the flow of air received in the intake inlet; and an intake outlet in fluid communication with and downstream from the intake duct, the intake outlet being configured to discharge the flow of air toward the engine inlet; characterised in that: at least part of the intake duct adjacent the intake inlet extends along an intake axis that is non-parallel to the reference axis, the intake axis being oriented toward a predetermined flow direction of the air pushed aft by the propeller upstream of the intake inlet during operation of the gas turbine engine, the intake axis being at an angle (β1) that is greater than 0 degree and less than 5 degrees from the reference axis measured in a horizontal plane relative to the installed orientation of the air intake on the gas turbine engine. an intake inlet for receiving a flow of air therein from the air pushed aft by the propeller, the intake inlet being configured to be generally forward-facing relative to the gas turbine engine and offset radially outwardly relative to the reference axis; an intake duct in fluid communication with the intake inlet, the intake duct being configured to channel the flow of air received in the intake inlet; and an intake outlet in fluid communication with and downstream from the intake duct, the intake outlet being configured to discharge the flow of air toward the engine inlet; characterised in that: at least part of the intake duct adjacent the intake inlet extends along an intake axis that is non-parallel to the reference axis, the intake axis being oriented toward a predetermined flow direction of the air pushed aft by the propeller upstream of the intake inlet during operation of the gas turbine engine, the intake axis being at an angle (β1) that is greater than 0 degree and less than 5 degrees from the reference axis measured in a horizontal plane relative to the installed orientation of the air intake on the gas turbine engine.
A construction machine, comprising: - a compactor roller rotatable about an axis of rotation with respect to a machine frame (12, 28), - at least one sensor (70, 90, 94), a data transmission unit with at least one transmission antenna, and a first data transmission arrangement for transmitting data from the at least one sensor (70, 90, 94) to the data transmission unit, - on the machine frame (12, 18) a data receiving unit with at least one receiving antenna, a data evaluation system, and a second data transmission arrangement for transmitting data from the data receiving unit to the data evaluation system, characterized in that - the at least one sensor (70, 90, 94), the data transmitting unit and the first data transmission arrangement are provided on the compactor roller, - the data transmission unit has at least two transmission antennas and in that a signal splitter is assigned to the data transmission unit for distributing the output signal of the data transmission unit to multiple transmission antennas in such a way that all transmission antennas transmit essentially the same output signal simultaneously and without interruption. - a compactor roller rotatable about an axis of rotation with respect to a machine frame (12, 28), - at least one sensor (70, 90, 94), a data transmission unit with at least one transmission antenna, and a first data transmission arrangement for transmitting data from the at least one sensor (70, 90, 94) to the data transmission unit, - on the machine frame (12, 18) a data receiving unit with at least one receiving antenna, a data evaluation system, and a second data transmission arrangement for transmitting data from the data receiving unit to the data evaluation system, - the at least one sensor (70, 90, 94), the data transmitting unit and the first data transmission arrangement are provided on the compactor roller, - the data transmission unit has at least two transmission antennas and in that a signal splitter is assigned to the data transmission unit for distributing the output signal of the data transmission unit to multiple transmission antennas in such a way that all transmission antennas transmit essentially the same output signal simultaneously and without interruption.
A system for chemical vapor deposition coating of fiber tows, comprising: a coater comprising a housing having a tow entrance and a tow exit and defining an interior space, the coater further comprising a process gas inlet and a process gas outlet; at least one of an entrance side marker gas inlet at the tow entrance and an exit side marker gas inlet at the tow exit; at least one of an entrance side detection probe upstream of the entrance side marker gas inlet, and an exit side detection probe downstream of the exit side marker gas inlet, the at least one entrance side detection probe and exit side detection probe being configured to detect marker gas. a coater comprising a housing having a tow entrance and a tow exit and defining an interior space, the coater further comprising a process gas inlet and a process gas outlet; at least one of an entrance side marker gas inlet at the tow entrance and an exit side marker gas inlet at the tow exit; at least one of an entrance side detection probe upstream of the entrance side marker gas inlet, and an exit side detection probe downstream of the exit side marker gas inlet, the at least one entrance side detection probe and exit side detection probe being configured to detect marker gas.
A method for operating at least one pump assembly (1, 1a, 5) of a multitude of pump assemblies (1, 1a) which each comprise a programmable electronic motor control (4, 4a, 6) for individual pumps or groups of pumps and which are at least temporarily data-connected to a server via a network, with which data, in particular parameters and/or operating data of the multitude of pump assemblies (1, 1a, 5) is transferred via the network to a server and is stored there in a data base, and stored data is processed according to defined computation rules, whereupon the at least one pump assembly (1, 1a, 5) is then adapted in its programming via the network on the basis of the processed data, characterised in that with a first group of pump assemblies, operating data is determined by way of electrical variables of the drive as well as by way of at least one detected hydraulic variable, and that with a second group of pump assemblies of the same type, operating data is acquired by way of electrical variables of the drive, and that on the server side, the operating data of the second group of pump assemblies is adapted in the programming on the basis of the detected hydraulic variables of the first group.
A dough or batter product for use in bakery products, characterized therein that said dough or batter product comprises functionalized grains wherein the total amount of functional ingredients in said grains are at least 40 wt% of the total amount of said functional ingredients in said dough or batter product.
A low profile implantable pulse generator comprising: a battery (12; 6502); a printed circuit board (13; 6502); a generally rectangular metal can enclosing the printed circuit board and the battery, the can including a top piece having a top side defining a plane with a recessed portion having an interior side wall and an open side at a first end of the can; a coil (11; 6010) positioned adjacent the first end of the metal can, the coil operable to charge the battery; and characterised in that the implantable pulse generator further comprises a plurality of cut-outs (6110, 6112) formed in the recessed portion, and a plurality of leads (20, 30) extending from the first end of the can proximate to and across the coil, each of the leads including a plurality of wires (28, 29), the wires extending though the open side of the recessed portion below the plane defined by top side of the can, the plurality of the wires being configured to be used to transmit low frequency pulses from the printed circuit board (13; 6502) to a selected frontal, parietal, or occipital nerve region. a battery (12; 6502); a printed circuit board (13; 6502); a generally rectangular metal can enclosing the printed circuit board and the battery, the can including a top piece having a top side defining a plane with a recessed portion having an interior side wall and an open side at a first end of the can; a coil (11; 6010) positioned adjacent the first end of the metal can, the coil operable to charge the battery; and characterised in that the implantable pulse generator further comprises a plurality of cut-outs (6110, 6112) formed in the recessed portion, and a plurality of leads (20, 30) extending from the first end of the can proximate to and across the coil, each of the leads including a plurality of wires (28, 29), the wires extending though the open side of the recessed portion below the plane defined by top side of the can, the plurality of the wires being configured to be used to transmit low frequency pulses from the printed circuit board (13; 6502) to a selected frontal, parietal, or occipital nerve region.
A method at a user equipment (410, 510) capable of supporting at least two radio connections, a first radio connection, being for a first subscriber identity, and being on a same network as the second radio connection, the method comprising: requesting (442, 542) from a remote server, using the first radio connection, a second subscriber identity; receiving, at the user equipment, the second subscriber identity (446, 546) over the first radio connection; using the second subscriber identity to establish the second radio connection; wherein if the first radio connection is not on the same network as the second radio connection, re-connecting the first radio connection on the same network as the second radio connection using the first subscriber identity; receiving a subscriber authentication challenge (470, 570) over the second network connection; using the first radio connection to connect to a remote server to obtain an authentication challenge response (474, 574) for the subscriber authentication challenge (472, 572); and sending the authentication challenge response (476, 576) over the second network connection. requesting (442, 542) from a remote server, using the first radio connection, a second subscriber identity; receiving, at the user equipment, the second subscriber identity (446, 546) over the first radio connection; using the second subscriber identity to establish the second radio connection; wherein if the first radio connection is not on the same network as the second radio connection, re-connecting the first radio connection on the same network as the second radio connection using the first subscriber identity; receiving a subscriber authentication challenge (470, 570) over the second network connection; using the first radio connection to connect to a remote server to obtain an authentication challenge response (474, 574) for the subscriber authentication challenge (472, 572); and sending the authentication challenge response (476, 576) over the second network connection.
Casting mould for producing a metallic cast part which has a hollow-cylindrical region with a cylindrical inner contour, comprising: - a mould cavity which corresponds to the dimensions of the cast part; and - at least one core, which is arranged in the mould cavity, for mapping of the inner contour, wherein this core is a constituent part of the casting mould; wherein the core is of multi-part form and has a plurality of movable core segments and a mandrel which is arranged so as to be longitudinally displaceable between the core segments, wherein the mandrel is arranged centrally and the core segments are arranged around the mandrel, wherein the mandrel and the core segments are formed with complementary oblique surfaces which form a wedge-type slide mechanism, wherein, during the longitudinal displacement of the mandrel, the core segments are displaced transversely with respect to the movement direction of the mandrel and can be brought into a casting position by extending of the mandrel and can be brought into a demoulding position by retracting of the mandrel, wherein the multi-part core, with which the inner contour is mapped, has three or more movable core segments and the mandrel is formed with three or more pockets in which these core segments are arranged in a transversely movable manner, wherein the mandrel also has three or more radial webs which extend between the pockets, wherein the outer surfaces of these radial webs predefine, together with the outer surfaces of the core segments in the casting position, the inner contour to be mapped. - a mould cavity which corresponds to the dimensions of the cast part; and - at least one core, which is arranged in the mould cavity, for mapping of the inner contour, wherein this core is a constituent part of the casting mould; wherein the mandrel is arranged centrally and the core segments are arranged around the mandrel, wherein the mandrel and the core segments are formed with complementary oblique surfaces which form a wedge-type slide mechanism, wherein, during the longitudinal displacement of the mandrel, the core segments are displaced transversely with respect to the movement direction of the mandrel and can be brought into a casting position by extending of the mandrel and can be brought into a demoulding position by retracting of the mandrel, wherein the multi-part core, with which the inner contour is mapped, has three or more movable core segments and the mandrel is formed with three or more pockets in which these core segments are arranged in a transversely movable manner, wherein the mandrel also has three or more radial webs which extend between the pockets, wherein the outer surfaces of these radial webs predefine, together with the outer surfaces of the core segments in the casting position, the inner contour to be mapped.