mhurhangee/ep-ind-claims huggingface dataset:
A device comprising means for forwarding or routing speech frames in a transport network of a mobile communications system, the device further comprising: a buffer for storing incoming speech frames of a plurality of users of the mobile communications system, and a discarding unit for discarding speech frames, wherein the discarding unit is adapted to discard a speech frame stored in the buffer on basis of content of the speech frame, characterised in that the content of the speech frame comprises information about the quality of said speech frame indicating whether the speech frame has been erroneously received in the uplink transmission of the air interface. a buffer for storing incoming speech frames of a plurality of users of the mobile communications system, and a discarding unit for discarding speech frames, wherein the discarding unit is adapted to discard a speech frame stored in the buffer on basis of content of the speech frame, characterised in that the content of the speech frame comprises information about the quality of said speech frame indicating whether the speech frame has been erroneously received in the uplink transmission of the air interface.
An iron with power cord winded up, comprising a main body and an electric heater arranged inside the main body, wherein, the electric heater is connected with a power cord extending out of the main body, an outer surface of an upper portion of the main body is depressed inward to form a handle portion, the power cord is arranged to be winded around the handle portion, an engagement part is provided around an outer periphery of the main body, an engagement counterpart is engaged with the engagement part, and the power cord is detachably fastened by the engagement counterpart, characterised in that the engagement counterpart is arranged to be driven to move relative to the engagement part after the power cord is winded up on the handle portion to change a position where the power cord is to be fastened by the engagement counterpart.
An infinitely variable transmission having a longitudinal axis, a shifting mechanism, and a plurality of traction planet assemblies arranged angularly about the longitudinal axis, the shifting mechanism comprising: a first carrier member coupled to each of the traction planet assemblies, the first carrier member configured to guide the traction planet assemblies; a second carrier member coupled to each of the traction planet assemblies, the second carrier member configured to guide the traction planet assemblies; wherein the first and second carrier members are rotatable about the longitudinal axis; and a carrier driver nut coupled to the first carrier member, the carrier driver nut adapted to translate axially, wherein an axial translation of the carrier driver nut corresponds to a rotation of the first carrier member with respect to the second carrier member to thereby tilt the traction planet assemblies; and a main shaft positioned along the longitudinal axis, wherein the main shaft is provided with a plurality of helical splines, wherein the carrier driver nut is coupled to the helical splines. a first carrier member coupled to each of the traction planet assemblies, the first carrier member configured to guide the traction planet assemblies; a second carrier member coupled to each of the traction planet assemblies, the second carrier member configured to guide the traction planet assemblies; wherein the first and second carrier members are rotatable about the longitudinal axis; and a carrier driver nut coupled to the first carrier member, the carrier driver nut adapted to translate axially, wherein an axial translation of the carrier driver nut corresponds to a rotation of the first carrier member with respect to the second carrier member to thereby tilt the traction planet assemblies; and a main shaft positioned along the longitudinal axis, wherein the main shaft is provided with a plurality of helical splines, wherein the carrier driver nut is coupled to the helical splines.
Device for inducing and adjusting the tension, known as tensioning, of a winding thread in textile machines comprising a comb tensioning device having a plurality of stationary deviator elements (22,54) and a plurality of displaceable deviator elements (27,47), said deviator elements being arranged facing each other in a staggered and opposed manner to form a tortuous path for the thread that passes through the device, the displaceable deviator elements (27,47) being placed on board of a mobile device capable of modifying the tortuousness of the path of the thread between said deviator elements, the mobile device being alternatively placed in a rest position so as to leave the path of the thread free or in a working position wherein the mobile device is advanced against the thread being processed to create tortuousness in the path of the thread, at least one of the pluralities of deviator elements (22,54; 27,47) being contrasted by springs (39,49), so as to move due to the effect of the tension of the deviated thread and of the contrast of the opposing springs (39, 49) wherein each of the at least one of pluralities of deviator elements (27,54;27,47) being contrasted by springs is capable of moving independently from each other, characterised in that the device comprises an actuating actuator configured to be driven by a control unit of the spooling station that receives the signals of a tension sensor measuring the tension of the thread, wherein the actuating actuator, in view of the signal of said tension sensor, is configured to modulate the degree of compression of the springs (39,49) working in contact with the thread, to obtain the desired tension in the thread in outlet from the thread tensioning device, and in that at least one of the pluralities of deviator elements (22,54; 27,47) is placed on a plurality of elements (38,51), sliding with respect to guide bars (34, 52) so as to move forth and back due to the effect of the tension of the deviated thread and of the contrast of the opposing springs (39,49).
A method of detecting faults in spray nozzles (16; 16'; 16"), the method comprising: actuating a first valve (26; 38; 38') based on a spray command; generating, by a first position sensor (24; 48a; 48a'), first position information regarding an actual position of the first valve; comparing, by a controller (20, 28), the actual position of the first valve to an expected position of the first valve, wherein the expected position is determined from baseline position information; generating, by the controller (20, 28), a nozzle status based on the comparison of the actual position of the first valve and the expected position of the first valve; the baseline position information comprising historical valve position information of the first valve, characterized in that the method comprises generating and storing, by the controller, the historical valve position information, averaging the historical valve position information to obtain an average valve position of the first valve based on previous actuations of the first valve and utilizing the average valve position as the expected position of the first valve. actuating a first valve (26; 38; 38') based on a spray command; generating, by a first position sensor (24; 48a; 48a'), first position information regarding an actual position of the first valve; comparing, by a controller (20, 28), the actual position of the first valve to an expected position of the first valve, wherein the expected position is determined from baseline position information; generating, by the controller (20, 28), a nozzle status based on the comparison of the actual position of the first valve and the expected position of the first valve; the baseline position information comprising historical valve position information of the first valve, characterized in that the method comprises generating and storing, by the controller, the historical valve position information, averaging the historical valve position information to obtain an average valve position of the first valve based on previous actuations of the first valve and utilizing the average valve position as the expected position of the first valve. the baseline position information comprising historical valve position information of the first valve, characterized in that the method comprises generating and storing, by the controller, the historical valve position information, averaging the historical valve position information to obtain an average valve position of the first valve based on previous actuations of the first valve and utilizing the average valve position as the expected position of the first valve.
A heat sink assembly for dissipating heat from an electronic component, the heat sink assembly comprising: a heat sink including a base having a surface configured to engage the electronic component, the heat sink further including at least one fin extending from the base in a direction perpendicular to a direction of the surface of the base, the at least one fin having a first surface, a second surface opposite the first surface, and an opening formed therein extending from the first surface to the second surface, the opening being configured to receive a fastener; and a clip including a first portion having a first leg configured to engage the second surface of the at least one fin and a second leg coupled to the first leg by a curved portion, the second leg being spring biased away from the first leg, the clip further including a second portion coupled to the first portion, the second portion being configured to engage the electronic component to secure the heat sink to the electronic component proximate to the base in response to a force being applied to the second leg by the fastener in which the second leg engages the first leg. a heat sink including a base having a surface configured to engage the electronic component, the heat sink further including at least one fin extending from the base in a direction perpendicular to a direction of the surface of the base, the at least one fin having a first surface, a second surface opposite the first surface, and an opening formed therein extending from the first surface to the second surface, the opening being configured to receive a fastener; and a clip including a first portion having a first leg configured to engage the second surface of the at least one fin and a second leg coupled to the first leg by a curved portion, the second leg being spring biased away from the first leg, the clip further including a second portion coupled to the first portion, the second portion being configured to engage the electronic component to secure the heat sink to the electronic component proximate to the base in response to a force being applied to the second leg by the fastener in which the second leg engages the first leg.
A propeller system for an aircraft comprising: a propeller assembly rotatable about a central axis; a reduction gearbox operably connected to the propeller assembly via a propeller shaft; and an electrical power transfer system positioned such that the gearbox is located axially between the electrical power transfer system and the propeller assembly and including: a slip ring assembly operably connected to an oil transfer tube extending to the propeller assembly; and a brush block interactive with the slip ring assembly to transfer electrical power to a plurality of lead wires extending from the slip ring assembly to the propeller assembly, the brush block positioned such that brush block tips of the brush block extend toward the slip ring assembly in a substantially axial direction relative to the central axis. a propeller assembly rotatable about a central axis; a reduction gearbox operably connected to the propeller assembly via a propeller shaft; and an electrical power transfer system positioned such that the gearbox is located axially between the electrical power transfer system and the propeller assembly and including: a slip ring assembly operably connected to an oil transfer tube extending to the propeller assembly; and a brush block interactive with the slip ring assembly to transfer electrical power to a plurality of lead wires extending from the slip ring assembly to the propeller assembly, the brush block positioned such that brush block tips of the brush block extend toward the slip ring assembly in a substantially axial direction relative to the central axis. a slip ring assembly operably connected to an oil transfer tube extending to the propeller assembly; and a brush block interactive with the slip ring assembly to transfer electrical power to a plurality of lead wires extending from the slip ring assembly to the propeller assembly, the brush block positioned such that brush block tips of the brush block extend toward the slip ring assembly in a substantially axial direction relative to the central axis.
An access assembly comprising: an inflatable port; and an inflation cannula operably connected to the inflatable port to provide inflation fluid to the inflatable port, characterised in that the inflation cannula is tapered, the insertion cannula extends at least partially along the length of the inflatable port a and the inflatable port is twisted about the cannula when in a first un-inflated configuration to achieve a tapered configuration and to facilitate insertion through tissue and when inflated defines a substantially hour-glass shape when in the inflated configuration to create a seal within an opening in the tissue. an inflatable port; and an inflation cannula operably connected to the inflatable port to provide inflation fluid to the inflatable port, characterised in that the inflation cannula is tapered, the insertion cannula extends at least partially along the length of the inflatable port a and the inflatable port is twisted about the cannula when in a first un-inflated configuration to achieve a tapered configuration and to facilitate insertion through tissue and when inflated defines a substantially hour-glass shape when in the inflated configuration to create a seal within an opening in the tissue.
A printer apparatus, comprising: a print head; a platen roller; and a frame, wherein printing is performed on recording paper situated between the print head and the platen roller, wherein a projection is formed at a side face of the print head, wherein a side face of the frame has a letter-L groove formed therein for receiving the projection, wherein the letter-L groove includes a first area constituting an entrance to the groove, a second area for positioning the projection and formed such as to extend in a direction intersecting with a direction in which the first area extends, a slanted part formed between the first area and the second area, and an upper slanted part formed on a side opposite from the slanted part between the first area and the second area and wherein the slanted part and the upper slanted part are edges of the letter-L groove and extend in a direction different from both a direction in which the projection is moveable in the first area and a direction in which the projection is moveable in the second area, the slanted part and the upper slanted part being bevelled corners of the letter-L groove between the first area and the second area,the slanted part and upper slanted part being configured to prevent the print head from falling off from the letter-L groove. a print head; a platen roller; and a frame, wherein printing is performed on recording paper situated between the print head and the platen roller, wherein a projection is formed at a side face of the print head, wherein a side face of the frame has a letter-L groove formed therein for receiving the projection, wherein the letter-L groove includes a first area constituting an entrance to the groove, a second area for positioning the projection and formed such as to extend in a direction intersecting with a direction in which the first area extends, a slanted part formed between the first area and the second area, and an upper slanted part formed on a side opposite from the slanted part between the first area and the second area and wherein the slanted part and the upper slanted part are edges of the letter-L groove and extend in a direction different from both a direction in which the projection is moveable in the first area and a direction in which the projection is moveable in the second area, the slanted part and the upper slanted part being bevelled corners of the letter-L groove between the first area and the second area,the slanted part and upper slanted part being configured to prevent the print head from falling off from the letter-L groove.
A broadcast receiver, said receiver including processing means used to receive the data signal, r 1 (t) wherein the receiver is configured to receive the said data signal with respect to at least one decision metric derived upon utilising the probability density function of a Suzuki distribution of the said data signal in order to take into account potential impairment of the said data signal and the selection of the decision metric used is made with regard to whether any or any combination of values for the phase, delay and/or amplitude of the said data signal is known characterised in that when the phase and delay values are known the decision metric used is Λ k = ln p r l t l = 1 Lp | s k t, θ l l = 1 Lp, τ l l = 1 Lp; when only the phase value is known the decision metrics used are Λ k = ln p r l t l = 1 Lp | s k t, θ l l = 1 Lp = ln K B − A ∏ l = 1 L p 5 2 1 8 σ 2 e − μ 2 2 σ 2 2 σ 2 π Γ 1 − 1 8 σ 2 − μ 2 σ 2 N l E k − 1 + 1 + 4 μ 4 σ 2 Γ 1 + 4 μ 8 σ 2 − 1 2 F 1 1 1 + 4 μ 8 σ 2 − 1 2, 1 2, e − j 2 θ l y kl 2 τ 4 E k N l + e − jθ l y kl τ N l N l E k Γ 1 + 4 μ 8 σ 2 F 1 1 1 + 4 μ 8 σ 2 3 2 e − j 2 θ l y kl 2 τ 4 E k N l and Λ k = ln p r l t l = 1 Lp | s k t, θ l l = 1 Lp = ln K B − A ∏ l = 1 L p 5 2 1 8 σ 2 e − μ 2 2 σ 2 2 σ 2 π Γ 1 − 1 8 σ 2 − μ 2 σ 2 N l E k − 1 + 1 + 4 μ 4 σ 2 Γ 1 + 4 μ 8 σ 2 − 1 2 * 2 1 − 1 8 σ 2 − μ 2 σ 2 F 1 1 1 + 4 μ 8 σ 2 − 1 2, 1 2, e − j 2 θ l y kl 2 τ 4 E k N l + e − jθ l y kl τ N l N l E k Γ 1 + 4 μ 8 σ 2 F 1 1 1 + 4 μ 8 σ 2 3 2 e − j 2 θ l y kl 2 τ 4 E k N l when the delay and amplitude values are known the decision metric used is Λ k = ln p r l t l = 1 Lp | s k t, α l l = 1 Lp, τ l l = 1 Lp = K ∑ l = 1 L p ln e − a l 2 E k N l I o a l N l y kl τ l when only the delay value is known the decision metric used is. Λ k = ln p r l t l = 1 Lp | s k t, τ l l = 1 Lp; and when the delay, amplitude and phase values are unknown the decision metric used is Λ k = ln p r l t l = 1 Lp | s k t = ln K B − A ∏ l = 1 L p 5 2 1 8 σ 2 e − μ 2 2 σ 2 σ 2 π Γ 1 − 1 8 σ 2 − μ 2 σ 2 1 2 E k N l − 1 + 4 μ 8 σ 2 Γ 1 + 4 μ 8 σ 2 and ln K B − A ∏ l = 1 L p 5 2 1 8 σ 2 e − μ 2 2 σ 2 4 σπ 2 Γ 1 − 1 8 σ 2 − μ 2 σ 2 E k N l 1 4 − 1 + 4 μ 8 σ 2 2 1 2 − 1 8 σ 2 − μ 2 σ 2 y kl τ l N l Γ 1 + 4 μ 8 σ 2 − 1 4 F 1 1 1 + 4 μ 8 σ 2 − 1 4, 1 2, y kl 2 τ 4 E k N l − y kl τ E k N l Γ 1 + 4 μ 8 σ 2 + 1 4 F 1 1 1 + 4 μ 8 σ 2 + 1 4, 3 2, y kl 2 τ 4 E k N l where s k(t) is the corresponding k th complex baseband signal chosen from the set of M equi-probable message waveforms which represents the transmitted data signal, L p are the independent diversity paths, and a l l = 1 L p, θ l l = 1 L p and τ l l = 1 L p are the amplitude, phase and delay values respectively, and σ and μ are the variance and mean of the lognormal distribution of impairments of the data signal, and where Y kl =∫ 0 T r 1 (t+T) s k * (t) dt.
Method for producing a package for bar-shaped smoking articles out of a previously printed or unprinted foil strip (3; 3b) taken from a foil strip reel, whereby the foil strip is online embossed and/or provided with creasing breaks in time with a work cadence of a packaging machine and subsequently cut to size, and the foil strip is folded around the bar-shaped smoking articles in a packaging machine; wherein an operating cadence of an embossing unit arranged for the online embossing is determined with a detection unit by detection of a surface structure to be embossed by the embossing unit on the foil strip (3; 3b); and the operating cadence of the embossing unit is synchronized to the work cadence of the packaging machine; the method is further characterized in that the foil strip is an outer layer of the package, whereby the outer layer of the package is adapted to receive bar-shaped smoking articles and to hold the package together; an operating cadence of a creasing unit or an operating cadence of the cutting unit is synchronized to the operating cadence of the embossing unit; and the operating cadence of the cutting unit is synchronized to the operating cadence of the creasing unit or to the operating cadence of the embossing unit; whereby the creasing breaks (21a-21e) are formed by the creasing unit on the foil strip at desired relative positions on the foil strip compared to the embossed surface structures, and cuts (22a-22e) are made by the cutting unit at the desired relative positions on the foil strip, whereby each of the cuts has a length less than a width of the foil strip, except for the cuts made at the two extremities of the foil strip when cut to size in length, which extend through the width of the foil strip.
A dry-cleaning method for removing a metal film adhered to a film-formation apparatus by using β-diketone, the dry-cleaning method being characterized by that a gas containing β-diketone and NOx (representing at least one of NO and N 2 O) is used as a cleaning gas and that the metal film within a temperature range of 200 °C to 400 °C is reacted with the cleaning gas, thereby removing the metal film, wherein the gas has a NOx/β-diketone ratio by volume of from 0.02 to 0.60.
Electric motor for an air pulse device used in a ventilation, heating and/or air-conditioning system of a motor vehicle, the electric motor comprising a stator and a rotor, the rotor being arranged around the stator, a support element for said rotor and for said stator, a support for the electric motor through which passes a flow of air, a radiator and an electronic member that is able to control said electric motor, said radiator being inserted between said support for the electric motor and said electronic member, the support element for the rotor and for the stator, and the radiator constituting a single part, referred to as dual-function, the dual-function part being in one piece, characterized in that the support for the electric motor comprising a lateral air inlet duct and at least one passage that is oriented towards the stator and the rotor of the electric motor to allow the flow of air passing through said support for the electric motor to pass through towards said stator and said rotor of the electric motor in order to cool it.