mhurhangee/patent-ind-claim-en huggingface dataset:
Integrated magnetic component for a power converter including N >= 2 LLC converters configured for interleaved operation, said integrated magnetic component includes a) a first yoke (131.1), a second yoke (133.1) and a third yoke (132.1), b) for each LLC converter a winding carrying leg, c) wherein the third yoke (132.1) is arranged between the first and the second yoke (131.1, 133.1) dividing each winding carrying leg in a transformer section and a first choke section, d) wherein each transformer section comprises a transformer air gap , a primary winding and a secondary winding , the primary winding and the secondary winding being wound on the respective winding carrying leg, e) wherein each first choke section of each winding carrying leg comprises a first choke air gap and a first choke winding for defining a first series inductance of a first series inductor of a LLC converter, f) the integrated magnetic component further includes one or more return legs, g) wherein the winding carrying legs and the one or more return legs are arranged side by side, each leg being magnetically connected to the first yoke (131.1) and the second yoke (133.1), wherein the at least one return leg is air gap free and h) wherein at least one return leg is arranged between two winding carrying legs. a) a first yoke (131.1), a second yoke (133.1) and a third yoke (132.1), b) for each LLC converter a winding carrying leg, c) wherein the third yoke (132.1) is arranged between the first and the second yoke (131.1, 133.1) dividing each winding carrying leg in a transformer section and a first choke section, d) wherein each transformer section comprises a transformer air gap , a primary winding and a secondary winding , the primary winding and the secondary winding being wound on the respective winding carrying leg, e) wherein each first choke section of each winding carrying leg comprises a first choke air gap and a first choke winding for defining a first series inductance of a first series inductor of a LLC converter, f) the integrated magnetic component further includes one or more return legs, g) wherein the winding carrying legs and the one or more return legs are arranged side by side, each leg being magnetically connected to the first yoke (131.1) and the second yoke (133.1), wherein the at least one return leg is air gap free and h) wherein at least one return leg is arranged between two winding carrying legs.
A method performed by a terminal in a communication system, the method comprising: receiving (S401), from a base station , system information including configuration for a message A, MsgA, of a two-step random access procedure, the MsgA including a preamble on a physical random access channel, PRACH, and a payload on a physical uplink shared channel, PUSCH, in the two-step random access procedure; transmitting (S402), to the base station , the PRACH and the PUSCH based on the configuration; and receiving (S403), from the base station , a response for the PRACH and the PUSCH; and wherein whether to apply a transform precoding for the PUSCH of the MsgA is determined based on the configuration for the MsgA, in case that the configuration for the MsgA includes information indicating whether to apply the transform precoding for the PUSCH of the MsgA, and wherein whether to apply a transform precoding for the PUSCH of the MsgA is determined based on a configuration for a message 3, Msg3, of a four-step random access, in case that the configuration for the MsgA does not include the information indicating whether to apply the transform precoding for the PUSCH of the MsgA. receiving (S401), from a base station , system information including configuration for a message A, MsgA, of a two-step random access procedure, the MsgA including a preamble on a physical random access channel, PRACH, and a payload on a physical uplink shared channel, PUSCH, in the two-step random access procedure; transmitting (S402), to the base station , the PRACH and the PUSCH based on the configuration; and receiving (S403), from the base station , a response for the PRACH and the PUSCH; and wherein whether to apply a transform precoding for the PUSCH of the MsgA is determined based on the configuration for the MsgA, in case that the configuration for the MsgA includes information indicating whether to apply the transform precoding for the PUSCH of the MsgA, and wherein whether to apply a transform precoding for the PUSCH of the MsgA is determined based on a configuration for a message 3, Msg3, of a four-step random access, in case that the configuration for the MsgA does not include the information indicating whether to apply the transform precoding for the PUSCH of the MsgA.
A system for assembling a plurality of cartridges for an aerosol delivery device, the system comprising: a plurality of assembly cells collectively configured to assemble a plurality of cartridge components together, at least a pair of the assembly cells respectively comprising: one or more assembly carriages respectively configured to engage a plurality of partially-assembled cartridges comprising one or more of the cartridge components; and an intra-cell transporter arranged to circulate the assembly carriages around each one of or both of the assembly cells; and at least one transfer apparatus comprising a transfer track positioned between adjacent intra-cell transporters of the assembly cells and arranged to individually and sequentially transfer the partially-assembled cartridges between adjacent intra-cell transports of the assembly cells . one or more assembly carriages respectively configured to engage a plurality of partially-assembled cartridges comprising one or more of the cartridge components; and an intra-cell transporter arranged to circulate the assembly carriages around each one of or both of the assembly cells; and at least one transfer apparatus comprising a transfer track positioned between adjacent intra-cell transporters of the assembly cells and arranged to individually and sequentially transfer the partially-assembled cartridges between adjacent intra-cell transports of the assembly cells .
A surgical stapling device, comprising: a first jaw of an end effector having a cartridge with a plurality of staple cavities configured to seat staples therein, the staple cavities opening on a tissue-facing surface of the cartridge; a second jaw of the end effector opposing the first jaw and having an anvil with a plurality of staple forming cavities formed on a tissue-facing surface thereof, wherein the first and second jaws are configured to clamp tissue therebetween; an adjunct material releasably retained on at least one of the first and second jaws; a firing bar configured to move between an unfired position at a proximal end of the end effector and a fired position at a distal end of the end effector; and an adjunct removal assembly configured to couple to and move with the firing bar to separate the adjunct material from the surgical stapling device, characterised in that the adjunct removal assembly is configured to separate the adjunct material from the surgical stapling device as the firing bar having the adjunct removal assembly coupled thereto is returned from the fired position to the unfired position. a first jaw of an end effector having a cartridge with a plurality of staple cavities configured to seat staples therein, the staple cavities opening on a tissue-facing surface of the cartridge; a second jaw of the end effector opposing the first jaw and having an anvil with a plurality of staple forming cavities formed on a tissue-facing surface thereof, wherein the first and second jaws are configured to clamp tissue therebetween; an adjunct material releasably retained on at least one of the first and second jaws; a firing bar configured to move between an unfired position at a proximal end of the end effector and a fired position at a distal end of the end effector; and an adjunct removal assembly configured to couple to and move with the firing bar to separate the adjunct material from the surgical stapling device, characterised in that the adjunct removal assembly is configured to separate the adjunct material from the surgical stapling device as the firing bar having the adjunct removal assembly coupled thereto is returned from the fired position to the unfired position.
A water dispersible powderous formulation comprising (i) at least 0.1 weight-% (wt-%), based on the total weight of the powderous formulation, of a compound of formula (I) wherein n is an integer from 1 to 15 R 1 is H, C 1 -C 6 alkyl, phenyl, -OH, -NH 2 , -CN, -COOH, -O(C=O)R 8 , -NHC(=O)R 8 , SO 2 NHR 8 , or -ONO 2 , and R 8 is C 1 -C 6 alkyl, phenyl, pyridyl such as preferably 2-pyridyl with the proviso that when n is > 3 the hydrocarbon chain may be interrupted by -O- or -NH-. (ii) 0 to 40 wt-%, based on the total weight of the powderous formulation, of an edible oil, and (ii) at least 25 wt-%, based on the total weight of the powderous formulation, of precipitated silica. (i) at least 0.1 weight-% (wt-%), based on the total weight of the powderous formulation, of a compound of formula (I) wherein n is an integer from 1 to 15 R 1 is H, C 1 -C 6 alkyl, phenyl, -OH, -NH 2 , -CN, -COOH, -O(C=O)R 8 , -NHC(=O)R 8 , SO 2 NHR 8 , or -ONO 2 , and R 8 is C 1 -C 6 alkyl, phenyl, pyridyl such as preferably 2-pyridyl with the proviso that when n is > 3 the hydrocarbon chain may be interrupted by -O- or -NH-. n is an integer from 1 to 15 R 1 is H, C 1 -C 6 alkyl, phenyl, -OH, -NH 2 , -CN, -COOH, -O(C=O)R 8 , -NHC(=O)R 8 , SO 2 NHR 8 , or -ONO 2 , and R 8 is C 1 -C 6 alkyl, phenyl, pyridyl such as preferably 2-pyridyl with the proviso that when n is > 3 the hydrocarbon chain may be interrupted by -O- or -NH-. (ii) 0 to 40 wt-%, based on the total weight of the powderous formulation, of an edible oil, and (ii) at least 25 wt-%, based on the total weight of the powderous formulation, of precipitated silica.
A system comprising: a seat headrest enclosing at least one first acoustic transducer that generates audio output in a first frequency range; an adjustable headrest wing disposed in front of the seat headrest the headrest wing being pivotally coupled to the seat headrest and adjustable to one of multiple positions, the headrest wing comprising at least one second acoustic transducer that generates audio output in a second frequency range that includes frequencies higher than the upper end of the first frequency range; and a controller configured to adjust, for a given position of the headrest wing , one or more parameters of at least one of: (i) the first acoustic transducer and (ii) the second acoustic transducer in accordance with a target acoustic distribution, characterized in that the one or more parameters are adjusted specific to a relative position of the first acoustic transducer with respect to the second acoustic transducer. a seat headrest enclosing at least one first acoustic transducer that generates audio output in a first frequency range; an adjustable headrest wing disposed in front of the seat headrest the headrest wing being pivotally coupled to the seat headrest and adjustable to one of multiple positions, the headrest wing comprising at least one second acoustic transducer that generates audio output in a second frequency range that includes frequencies higher than the upper end of the first frequency range; and a controller configured to adjust, for a given position of the headrest wing , one or more parameters of at least one of: (i) the first acoustic transducer and (ii) the second acoustic transducer in accordance with a target acoustic distribution, characterized in that the one or more parameters are adjusted specific to a relative position of the first acoustic transducer with respect to the second acoustic transducer.
A soft-bodied apparatus for opening an eyelid, comprising: a head support module , a real-time eyelid positioning module , a robot end-effector real-time positioning module , and an automatic eyelid opening operation module , wherein: the head support module is configured to support the head of a user; the real-time eyelid positioning module is configured to recognize and locate real-time poses of upper and lower eyelids of the user in real time; the robot end-effector real-time positioning module is configured to reconstruct a real-time shape and a pose of a robot soft-bodied end-effector; the automatic eyelid opening operation module comprises a robot body and a robot control system; wherein the robot body is provided with a multi-axis rigid body mechanical arm and a soft-bodied end-effector, and the robot control system takes the real-time poses of the upper and lower eyelids of the user as a motion target, and takes the real-time shape and the pose of the soft-bodied end-effector as feedback information to control motion of the robot body to complete an action of automatically opening the eyelid of the user.
Harrow tine for a soil cultivating device with a base body and a penetrating part arranged at the base body , wherein the penetrating part comprises a plate-shaped base part with a tip which is reinforced at least at its front area, i.e. the pointed area of the tip , via an elevation , wherein the elevation is formed web-shaped and the tip comprises a wedge shape, characterized in that the elevation in the most front area of the tip has a larger cross section than the plate-shaped base part , and the height h of the web-shaped elevation is larger than the thickness of the base part . the elevation in the most front area of the tip has a larger cross section than the plate-shaped base part , and the height h of the web-shaped elevation is larger than the thickness of the base part .
An internal combustion engine system comprising an internal combustion engine comprising - at least one combustor , and - a first expander arranged to receive exhaust gases from at least one of the at least one combustor , and to expand and extract energy from the exhaust gases, - wherein the engine comprises a crankshaft, and the combustor comprises a piston arranged to reciprocate in a cylinder, and to drive the crankshaft, - wherein the first expander is a piston expander arranged to drive the crankshaft with the extracted energy, - wherein the engine comprises a second expander arranged to receive exhaust gases from the first expander , and to expand and extract energy from the exhaust gases, - and in that the first expander comprises an expander inlet valve and/or an expander exhaust valve , the engine further comprising an expander variable valve timing mechanism arranged to actuate the expander inlet valve and/or an expander variable valve timing mechanism arranged to actuate the expander exhaust valve , - characterized in that the first expander comprises a hydrolysing reactor, wherein the internal combustion engine system further comprises a reductant injector configured to inject reductant into the first expander, and wherein the system comprises a selective catalytic reduction (SCR) catalyst arranged to receive exhaust gases from the first expander , to process the received exhaust gases, and to deliver the processed exhaust gases to the second expander . - at least one combustor , and - a first expander arranged to receive exhaust gases from at least one of the at least one combustor , and to expand and extract energy from the exhaust gases, - wherein the engine comprises a crankshaft, and the combustor comprises a piston arranged to reciprocate in a cylinder, and to drive the crankshaft, - wherein the first expander is a piston expander arranged to drive the crankshaft with the extracted energy, - wherein the engine comprises a second expander arranged to receive exhaust gases from the first expander , and to expand and extract energy from the exhaust gases, - and in that the first expander comprises an expander inlet valve and/or an expander exhaust valve , the engine further comprising an expander variable valve timing mechanism arranged to actuate the expander inlet valve and/or an expander variable valve timing mechanism arranged to actuate the expander exhaust valve , - characterized in that the first expander comprises a hydrolysing reactor, wherein the internal combustion engine system further comprises a reductant injector configured to inject reductant into the first expander, and wherein the system comprises a selective catalytic reduction (SCR) catalyst arranged to receive exhaust gases from the first expander , to process the received exhaust gases, and to deliver the processed exhaust gases to the second expander .
A method for improving the accuracy of a continuous glucose monitoring (CGM) system comprising: obtaining an output CGM signal at a time t; removing random noise from said CGM signal by estimating a value of the CGM signal at a time t + PH using a noise state estimation, wherein PH is a preselected real-time short time prediction horizon, wherein PH is less than 20 minutes; substituting in real time the estimated value of the CGM signal at a time t + PH for the output CGM signal at a time t; and using the estimated value of the CGM signal at a time t + PH as the true value of the CGM signal at time t. obtaining an output CGM signal at a time t; removing random noise from said CGM signal by estimating a value of the CGM signal at a time t + PH using a noise state estimation, wherein PH is a preselected real-time short time prediction horizon, wherein PH is less than 20 minutes; substituting in real time the estimated value of the CGM signal at a time t + PH for the output CGM signal at a time t; and using the estimated value of the CGM signal at a time t + PH as the true value of the CGM signal at time t.
A display assembly , comprising: a light pipe adapted for emitting light to illuminate a display , said pipe comprising a front face and a rear face opposite the front face, said pipe defining a compartment and a first channel segment and a second channel segment symmetrical about the compartment, said first channel segment and said second channel segment being formed in the rear face and having an outer wall and an inner wall effective to redirect light from the compartment toward the front face; and a light source received in the compartment for admitting light into the light pipe; and a housing that surrounds the light pipe and is spaced apart from sides of the light pipe , the inner surface of the housing being proximate to light pipe being reflective; wherein light admitted to the light pipe is emitted by the light pipe from the front face in combination with light reflected from the reflective surface to illuminate the display ; a light shield overlying the compartment and effective to prevent light emission from the compartment perpendicular to the front face ; characterized in that the light shield is adhesively bonded to the front face . a light pipe adapted for emitting light to illuminate a display , said pipe comprising a front face and a rear face opposite the front face, said pipe defining a compartment and a first channel segment and a second channel segment symmetrical about the compartment, said first channel segment and said second channel segment being formed in the rear face and having an outer wall and an inner wall effective to redirect light from the compartment toward the front face; and a light source received in the compartment for admitting light into the light pipe; and a housing that surrounds the light pipe and is spaced apart from sides of the light pipe , the inner surface of the housing being proximate to light pipe being reflective; wherein light admitted to the light pipe is emitted by the light pipe from the front face in combination with light reflected from the reflective surface to illuminate the display ; a light shield overlying the compartment and effective to prevent light emission from the compartment perpendicular to the front face ; characterized in that the light shield is adhesively bonded to the front face .
A display device , comprising: a substrate ; a pixel circuit (PC) on the substrate , the pixel circuit (PC) comprising: a gate electrode (GE), a drain electrode (DE), and a source electrode (SE); a vertical LED element on the substrate , the vertical LED element comprising: a first semiconductor layer , an active layer under the first semiconductor layer , a second semiconductor layer under the active layer , and an encapsulation film surrounding the vertical LED element , the encapsulation film exposing a portion of a lateral face of the second semiconductor layer ; a first connection electrode (PE) electrically connected to the first semiconductor layer ; and a second connection electrode (CE), characterised in that the second connection electrode (CE) is directly and electrically connected to the second semiconductor layer via the exposed portion of the lateral face of the second semiconductor layer . a substrate ; a pixel circuit (PC) on the substrate , the pixel circuit (PC) comprising: a gate electrode (GE), a drain electrode (DE), and a source electrode (SE); a gate electrode (GE), a drain electrode (DE), and a source electrode (SE); a vertical LED element on the substrate , the vertical LED element comprising: a first semiconductor layer , an active layer under the first semiconductor layer , a second semiconductor layer under the active layer , and an encapsulation film surrounding the vertical LED element , the encapsulation film exposing a portion of a lateral face of the second semiconductor layer ; a first semiconductor layer , an active layer under the first semiconductor layer , a second semiconductor layer under the active layer , and an encapsulation film surrounding the vertical LED element , the encapsulation film exposing a portion of a lateral face of the second semiconductor layer ; a first connection electrode (PE) electrically connected to the first semiconductor layer ; and a second connection electrode (CE), characterised in that the second connection electrode (CE) is directly and electrically connected to the second semiconductor layer via the exposed portion of the lateral face of the second semiconductor layer .