mhurhangee/patent-ind-claim-en huggingface dataset:
An audio device comprising: a microphone to provide a first signal ; a processor comprising a filter, the processor configured to receive the first signal and provide a second signal , the second signal being an anti-noise signal, the second signal based at least in part upon processing the first signal using the filter; and an acoustic transducer to convert a third signal , based at least in part upon the second signal , into an acoustic signal ; wherein the processor is also configured to detect an indication of instability in any of the first signal , the second signal , or the third signal and to adjust a phase response of the filter in response to detecting the indication of instability; characterized in that the processor is further configured to confirm an instability by monitoring for a change in the indication of instability resulting from adjusting the phase response of the filter; wherein adjusting the phase response comprises shifting an inflection point in the phase response of the filter. a microphone to provide a first signal ; a processor comprising a filter, the processor configured to receive the first signal and provide a second signal , the second signal being an anti-noise signal, the second signal based at least in part upon processing the first signal using the filter; and an acoustic transducer to convert a third signal , based at least in part upon the second signal , into an acoustic signal ; wherein the processor is also configured to detect an indication of instability in any of the first signal , the second signal , or the third signal and to adjust a phase response of the filter in response to detecting the indication of instability; characterized in that the processor is further configured to confirm an instability by monitoring for a change in the indication of instability resulting from adjusting the phase response of the filter; wherein adjusting the phase response comprises shifting an inflection point in the phase response of the filter.
A service processing method, wherein the method comprises: receiving , by an Internet Protocol multimedia subsystem, IMS, core network device, a request message for setting up a Voice over Long Term Evolution, VoLTE, service for originating user equipment, UE, in a packet switched, PS, domain; and triggering , by the IMS core network device, a circuit switched fallback, CSFB, service of the UE after determining that the VoLTE service cannot be set up in the PS domain; wherein the triggering, by the IMS core network device, a CSFB service of the UE comprises: sending , by the IMS core network device, a first message to the originating UE, wherein the first message is used to trigger the originating UE to initiate an originating CSFB service, the first message comprises a first cause value, and the first cause value is used to notify the originating UE of a reason why the VoLTE service is unavailable; characterized in that before the triggering, by the IMS core network device, the CSFB service of the originating UE, the method further comprises: determining, by the IMS core network device, that the originating UE has registered with a circuit switched domain. receiving , by an Internet Protocol multimedia subsystem, IMS, core network device, a request message for setting up a Voice over Long Term Evolution, VoLTE, service for originating user equipment, UE, in a packet switched, PS, domain; and triggering , by the IMS core network device, a circuit switched fallback, CSFB, service of the UE after determining that the VoLTE service cannot be set up in the PS domain; wherein the triggering, by the IMS core network device, a CSFB service of the UE comprises: sending , by the IMS core network device, a first message to the originating UE, wherein the first message is used to trigger the originating UE to initiate an originating CSFB service, the first message comprises a first cause value, and the first cause value is used to notify the originating UE of a reason why the VoLTE service is unavailable; characterized in that before the triggering, by the IMS core network device, the CSFB service of the originating UE, the method further comprises: determining, by the IMS core network device, that the originating UE has registered with a circuit switched domain. sending , by the IMS core network device, a first message to the originating UE, wherein the first message is used to trigger the originating UE to initiate an originating CSFB service, the first message comprises a first cause value, and the first cause value is used to notify the originating UE of a reason why the VoLTE service is unavailable; characterized in that before the triggering, by the IMS core network device, the CSFB service of the originating UE, the method further comprises: determining, by the IMS core network device, that the originating UE has registered with a circuit switched domain.
A method of finishing a slot in a gas turbine engine , the method comprising: a) inserting a tool into the slot , wherein the tool includes: a head configured to be received in the slot ; a first pad removably bonded to the head with adhesive , and a second pad removably bonded to the head with adhesive and disposed opposite from the first pad ; and b) moving the first pad along a first channel at a first circumferential edge of the slot and moving the second pad along a second channel at a second circumferential edge of the slot circumferentially opposite the first edge; characterised in that the head includes a first rounded groove , the first pad is received in the first rounded groove , the head includes a second rounded groove , and the second pad is received in the second rounded groove . a) inserting a tool into the slot , wherein the tool includes: a head configured to be received in the slot ; a first pad removably bonded to the head with adhesive , and a second pad removably bonded to the head with adhesive and disposed opposite from the first pad ; and a head configured to be received in the slot ; a first pad removably bonded to the head with adhesive , and a second pad removably bonded to the head with adhesive and disposed opposite from the first pad ; and b) moving the first pad along a first channel at a first circumferential edge of the slot and moving the second pad along a second channel at a second circumferential edge of the slot circumferentially opposite the first edge;
A turbomachine, comprising: a high pressure spool ; a low pressure spool ; and a dual spool differential comprising gear assembly connected to the low pressure spool at a low pressure spool input and the high pressure spool at a high pressure spool input , the gear assembly configured to combine the low pressure spool input and the high pressure spool input into a combination output to provide an output speed range smaller than a low pressure spool speed range alone; and characterized by the turbomachine further comprising a transmission assembly comprising a transmission output and a transmission input , the transmission input being connected to the combination output, wherein the transmission assembly is configured to provide a first output gear ratio in a first state and a second output gear ratio in a second state. a high pressure spool ; a low pressure spool ; and a dual spool differential comprising gear assembly connected to the low pressure spool at a low pressure spool input and the high pressure spool at a high pressure spool input , the gear assembly configured to combine the low pressure spool input and the high pressure spool input into a combination output to provide an output speed range smaller than a low pressure spool speed range alone; and characterized by the turbomachine further comprising a transmission assembly comprising a transmission output and a transmission input , the transmission input being connected to the combination output, wherein the transmission assembly is configured to provide a first output gear ratio in a first state and a second output gear ratio in a second state.
A method for fabricating a stiffened panel formed by an outer-mold-line layer and an inner-mold-line layer having a surface with protrusions , the method comprising: placing layers of composite material on a surface of an inner-mold-line tool having protrusions that extend from the surface of the inner-mold-line tool ; compacting the layers of composite material laid-up on the surface of the inner-mold-line tool using an intensifier to form compacted layers of composite material , wherein the intensifier has a symmetrical shape of the inner-mold-line tool on which the layers of composite material are laid-up to form compacted layers of composite material ; curing the compacted layers of composite material to form the inner-mold-line layer having corresponding protrusions ; and joining the inner-mold-line layer to the outer-mold-line layer comprises bonding the inner-mold-line layer to the outer-mold-line layer using a bonding tool which is positioned on the inner-mold-layer , includes protrusions and applies a pressure at bond locations between the inner-mold-line layer and the outer-mold-line layer , wherein the bond locations comprise depressions of the inner-mold-line layer . placing layers of composite material on a surface of an inner-mold-line tool having protrusions that extend from the surface of the inner-mold-line tool ; compacting the layers of composite material laid-up on the surface of the inner-mold-line tool using an intensifier to form compacted layers of composite material , wherein the intensifier has a symmetrical shape of the inner-mold-line tool on which the layers of composite material are laid-up to form compacted layers of composite material ; curing the compacted layers of composite material to form the inner-mold-line layer having corresponding protrusions ; and joining the inner-mold-line layer to the outer-mold-line layer comprises bonding the inner-mold-line layer to the outer-mold-line layer using a bonding tool which is positioned on the inner-mold-layer , includes protrusions and applies a pressure at bond locations between the inner-mold-line layer and the outer-mold-line layer , wherein the bond locations comprise depressions of the inner-mold-line layer .
A belt tracking system for controlling the lateral position of a movable belt entrained about a plurality of generally parallel rollers for moving in a trans-axial direction (X, Y) perpendicular to an axial direction (Z) in which the rollers extend parallel to each other, the system comprising: a roller shaft extending outward in the axial direction from an axial end of a specific one of the plurality of generally parallel rollers ; a slidable member slidably disposed around the roller shaft to move along the roller shaft as the belt moves laterally outward in the axial direction (Z); a rotation restrictor disposed adjacent to the slidable member to restrict rotation of the slidable member around the roller shaft ; a positioning flange operatively connected to the axial end of the roller to define a contact surface therealong extending generally perpendicular to the axial direction (Z) to contact an adjacent edge of the belt ; and a stationary guide member fixed in position adjacent to the roller shaft to define a guide surface therealong, characterized in that the slidable member is co-movably coupled with the roller shaft to define an inclined surface therealong inclined relative to the axial direction (Z), the slidable member being slidable against the stationary guide member along the inclined surface and the guide surface to cause the roller shaft to move in a direction perpendicular to the axial direction (Z) upon lateral displacement of the movable belt . a roller shaft extending outward in the axial direction from an axial end of a specific one of the plurality of generally parallel rollers ; a slidable member slidably disposed around the roller shaft to move along the roller shaft as the belt moves laterally outward in the axial direction (Z); a rotation restrictor disposed adjacent to the slidable member to restrict rotation of the slidable member around the roller shaft ; a positioning flange operatively connected to the axial end of the roller to define a contact surface therealong extending generally perpendicular to the axial direction (Z) to contact an adjacent edge of the belt ; and a stationary guide member fixed in position adjacent to the roller shaft to define a guide surface therealong, characterized in that the slidable member is co-movably coupled with the roller shaft to define an inclined surface therealong inclined relative to the axial direction (Z), the slidable member being slidable against the stationary guide member along the inclined surface and the guide surface to cause the roller shaft to move in a direction perpendicular to the axial direction (Z) upon lateral displacement of the movable belt .
Measuring motor comprising a star member having a first number of outer teeth and an inner bore , a ring member having a second number of inner teeth , wherein the first number is smaller than the second number, a first plate and a second plate , wherein the star member forms a first sealing zone with the first plate and a second sealing zone with the second plate , and the star member is arranged to rotate and orbit around an axis of the ring member and together with the ring member and the plates forms pressure chambers , characterized in that the star member comprises at least one ring groove in at least one of the first sealing zone and the second sealing zone, wherein the groove is connected to the inner bore via a leakage path and to at least one of the pressure chambers at a time via a connection arrangement.
A microelectronic sensor device for the investigation of at least one biological target substance , comprising a) a sample chamber (SC) containing at least one target specific reactant ; b) a sensor component (SE) for detecting the observable property of the label ; c) a heating component (HE) for exchanging heat with at least a sub-region of the sample chamber (SC), wherein the heating component comprises a heating array with a plurality of heating elements (HE); d) a control unit (CU) for selectively driving the heating component (HE); wherein the biological target substance and the target specific reactant comprise oligonucleotides, preferably DNA, RNA, PNA, LNA, ANA, or HNA; and wherein the sample chamber (SC) comprises a reaction surface (RS) that is covered with the target specific reactant; characterized in that said target specific reactant comprises a primer for a PCR process, wherein said primer is attached to said reaction surface (RS), wherein the reactant and/or the target substance comprises a label that changes an observable property if the reactant reacts with the target substance ; and wherein the observable property of the label comprises luminescence, particularly fluorescence, phosphorescence, or electroluminescence, magnetization, absorbance, and/or colorimetry. a) a sample chamber (SC) containing at least one target specific reactant ; b) a sensor component (SE) for detecting the observable property of the label ; c) a heating component (HE) for exchanging heat with at least a sub-region of the sample chamber (SC), wherein the heating component comprises a heating array with a plurality of heating elements (HE); d) a control unit (CU) for selectively driving the heating component (HE);
An agent for dyeing keratinous material, in particular human hair, containing (a1) at least one non-ionic emulsifier having an HLB value from 4.0 to 12.0, in a total amount from 0.2 to 8.0 wt.% based on the total weight of the agent, (a2) at least one pigment, and (a3) at least one amino-functionalized silicone polymer, wherein it contains at least one non-ionic emulsifier (a1) having an HLB value from 4.5 to 10.0. (a1) at least one non-ionic emulsifier having an HLB value from 4.0 to 12.0, in a total amount from 0.2 to 8.0 wt.% based on the total weight of the agent, (a2) at least one pigment, and (a3) at least one amino-functionalized silicone polymer,
An apparatus comprising: at least one processor; memory storing computer program code; wherein the memory storing the computer program code is configured, with the at least one processor, to cause the apparatus at least to: determine sound characteristics for an audio signal based on at least one user input on an input device, wherein the sound characteristics for the audio signal include at least a recording duration and a recording direction; and perform at least one control operation to cause at least one sound to exhibit the sound characteristics for the audio signal. at least one processor; memory storing computer program code; wherein the memory storing the computer program code is configured, with the at least one processor, to cause the apparatus at least to: determine sound characteristics for an audio signal based on at least one user input on an input device, wherein the sound characteristics for the audio signal include at least a recording duration and a recording direction; and perform at least one control operation to cause at least one sound to exhibit the sound characteristics for the audio signal. determine sound characteristics for an audio signal based on at least one user input on an input device, wherein the sound characteristics for the audio signal include at least a recording duration and a recording direction; and perform at least one control operation to cause at least one sound to exhibit the sound characteristics for the audio signal.
An air conditioning device for a vehicle, comprising an inlet duct for supplying fresh air, an air transmission branch and an air heating branch both supplied by the inlet duct and communicating with each other through a mixing zone , and mixing means arranged at the mixing zone for distributing an air flow between the air transmission branch and the air heating branch , wherein said mixing means are movable between an extreme hot position wherein the mixing means prevent communication between the air transmission branch and the mixing zone and force the air flow to pass through the air heating branch , an extreme cold position wherein the mixing means prevent communication between the air heating branch and the mixing zone and force the air flow to pass through the air transmission branch , and an extreme closed position wherein the mixing means prevent communication between the mixing zone and both the air transmission branch and the air heating branch ; wherein said mixing means comprise a butterfly flap pivotably mounted about a rotation axis arranged at the mixing zone , said butterfly flap comprising a first wing associated with one of said air transmission and air heating branches, hereinafter first branch , and a second wing , associated with the other of said air transmission and air heating branches, hereinafter second branch , as well as a wing extension hinged to said first wing according to a hinge axis parallel to the rotation axis of the butterfly flap , wherein, in said extreme closed position, the wing extension prevents communication between the first branch and the mixing zone , and the second wing prevents communication between the second branch and the mixing zone characterised in that , said wing extension is elastically hinged to said first wing ; and in that , within the first branch there are arranged abutment means adapted to be engaged by the wing extension and to cause, during rotation of the butterfly flap , the wing extension to rotate relative to the first wing .
A visual indication system comprising: a material handling vehicle , including a load platform , the load platform being vertically movable between an upper position and a lower position, the load platform including at least one fork; at least a first product placement location on the at least one fork and a second product placement location on the at least one fork; and at least a first visual indicator and a second visual indicator , the at least the first visual indicator and the second visual indicator to be coupled to the load platform , the at least the first visual indicator to provide a first visual indication on, at, or near the at least the first product placement location and the second visual indicator to provide a second visual indication on, at, or near the second product placement location ; characterised in that the load platform includes at least a first aperture and a second aperture ; whereby the at least the first visual indicator is arranged to provide the first visual indication through the at least the first aperture , and the second visual indicator is arranged to provide the second visual indication through the second aperture . a material handling vehicle , including a load platform , the load platform being vertically movable between an upper position and a lower position, the load platform including at least one fork; at least a first product placement location on the at least one fork and a second product placement location on the at least one fork; and at least a first visual indicator and a second visual indicator , the at least the first visual indicator and the second visual indicator to be coupled to the load platform , the at least the first visual indicator to provide a first visual indication on, at, or near the at least the first product placement location and the second visual indicator to provide a second visual indication on, at, or near the second product placement location ; characterised in that the load platform includes at least a first aperture and a second aperture ; whereby the at least the first visual indicator is arranged to provide the first visual indication through the at least the first aperture , and the second visual indicator is arranged to provide the second visual indication through the second aperture .