mhurhangee/patent-ind-claim-en huggingface dataset:
An oscillating rotary surgical tool including; a housing forming a handle ; a motor mounted in the housing, said motor having a rotary output first shaft ; a second shaft rotatably carried by the housing and having a cutter positioned at a distal end of the shaft; a transmission mounted in the housing and operably associated with the motor and coupling the first shaft to the second shaft, said transmission having a first section and a second section , said first section including a driver , said second section including a follower operably associated with the driver, said follower being pivotally mounted in the housing and movable in an oscillating manner in response to movement of the driver effected by rotation of the first shaft, said follower including a drive gear also movable in a rotary oscillating manner, said drive gear being in engagement with a driven gear member secured to said second shaft, whereby said second shaft is moved in a rotary oscillating manner by rotation of the first shaft, and characterised in that the first section includes a planetary gear set, said planetary gear set including a ring gear fixed against rotation relative to the housing and including a first pinion gear coupled to the motor to effect its movement within the ring gear revolving about the first shaft, and said driver mounted to the first pinion gear and moveable therewith. a housing forming a handle ; a motor mounted in the housing, said motor having a rotary output first shaft ; a second shaft rotatably carried by the housing and having a cutter positioned at a distal end of the shaft; a transmission mounted in the housing and operably associated with the motor and coupling the first shaft to the second shaft, said transmission having a first section and a second section , said first section including a driver , said second section including a follower operably associated with the driver, said follower being pivotally mounted in the housing and movable in an oscillating manner in response to movement of the driver effected by rotation of the first shaft, said follower including a drive gear also movable in a rotary oscillating manner, said drive gear being in engagement with a driven gear member secured to said second shaft, whereby said second shaft is moved in a rotary oscillating manner by rotation of the first shaft, and characterised in that the first section includes a planetary gear set, said planetary gear set including a ring gear fixed against rotation relative to the housing and including a first pinion gear coupled to the motor to effect its movement within the ring gear revolving about the first shaft, and said driver mounted to the first pinion gear and moveable therewith.
A variable magnetization machine control system comprising: a controller configured to adjust a d-axis current waveform and a q-axis current waveform in accordance with an operating condition of a variable magnetization machine to generate an adjusted d-axis current waveform and an adjusted q-axis current waveform that provide a driving voltage to drive the variable magnetization machine at a predetermined speed while maintaining the driving voltage below a predetermined maximum magnitude; characterized in that the controller is configured to reduce the rate of increase of the d-axis current waveform and that the controller comprising a current regulator configured to control said d-axis current waveform to commanded current values. a controller configured to adjust a d-axis current waveform and a q-axis current waveform in accordance with an operating condition of a variable magnetization machine to generate an adjusted d-axis current waveform and an adjusted q-axis current waveform that provide a driving voltage to drive the variable magnetization machine at a predetermined speed while maintaining the driving voltage below a predetermined maximum magnitude; characterized in that the controller is configured to reduce the rate of increase of the d-axis current waveform and that the controller comprising a current regulator configured to control said d-axis current waveform to commanded current values.
An active electrode, comprising: - an electrode for sensing an electric potential and generating an input signal; - a shield placed near said electrode , and said shield being electric insulated from said electrode ; - an integrated amplifier having an input connected to said at least one electrode for receiving the input signal; - said shield being connected to said output of the integrated amplifier to actively drive the electrical potential of said shield , thereby providing an active shielding of said electrode ; characterized in - that the integrated amplifier provides a buffered path outputting a buffered output signal; and - that the buffered path includes a first mixer in front of the integrated amplifier for frequency shifting the input signal from a basic frequency range to a higher frequency range, and a second mixer on the output of the integrated amplifier for frequency shifting the amplified signal from said higher frequency range back to said basic frequency range. - an electrode for sensing an electric potential and generating an input signal; - a shield placed near said electrode , and said shield being electric insulated from said electrode ; - an integrated amplifier having an input connected to said at least one electrode for receiving the input signal; - said shield being connected to said output of the integrated amplifier to actively drive the electrical potential of said shield , thereby providing an active shielding of said electrode ; characterized in - that the integrated amplifier provides a buffered path outputting a buffered output signal; and - that the buffered path includes a first mixer in front of the integrated amplifier for frequency shifting the input signal from a basic frequency range to a higher frequency range, and a second mixer on the output of the integrated amplifier for frequency shifting the amplified signal from said higher frequency range back to said basic frequency range.
A chemical compound represented by Formula Ia selected from the group consisting of: Ia-70 Ia-71 Ia-113 Ia-115 its stereoisomers, tautomers, pharmaceutically acceptable salts, or its isotopic substitutions in which the hydrogen, oxygen or nitrogen atom is replaced by its corresponding isotope.
A biological sample processing system comprising: a) a holder configured to hold a substrate in a substantially level orientation relative to gravity; b) a reservoir for light mineral oil; c) an oil dispenser for dispensing the light mineral oil from the reservoir onto the substrate in the holder such that a surface of the substrate is covered by the light mineral oil, the oil dispenser located above the holder and in fluid communication with the reservoir; d) a reagent dispenser located above the holder and configured to dispense a heated reagent onto the substrate such that a surface of the substrate is covered with a layer of the reagent; e) a receptacle located beneath the holder and configured to collect the light mineral oil and the reagent flowing off of the substrate such that a layer of light mineral oil covers the reagent in the receptacle; and f) a fluid path connecting the receptacle to the reagent dispenser for recirculating the reagent, characterized in that the biological sample processing system further comprises: g) an adjustable support supporting a portion of a weight of the biological sample processing system; h) a motor configured to adjust the adjustable support; and i) an inclinometer in electronic communication with the motor and configured to maintain the holder in the substantially level orientation relative to gravity by adjusting the adjustable support. a) a holder configured to hold a substrate in a substantially level orientation relative to gravity; b) a reservoir for light mineral oil; c) an oil dispenser for dispensing the light mineral oil from the reservoir onto the substrate in the holder such that a surface of the substrate is covered by the light mineral oil, the oil dispenser located above the holder and in fluid communication with the reservoir; d) a reagent dispenser located above the holder and configured to dispense a heated reagent onto the substrate such that a surface of the substrate is covered with a layer of the reagent; e) a receptacle located beneath the holder and configured to collect the light mineral oil and the reagent flowing off of the substrate such that a layer of light mineral oil covers the reagent in the receptacle; and f) a fluid path connecting the receptacle to the reagent dispenser for recirculating the reagent, g) an adjustable support supporting a portion of a weight of the biological sample processing system; h) a motor configured to adjust the adjustable support; and i) an inclinometer in electronic communication with the motor and configured to maintain the holder in the substantially level orientation relative to gravity by adjusting the adjustable support.
A method, in a first node in an optical network , for providing an in-band communication channel to a second node in the optical network , the method comprising the steps of: adapting, by a circuitry in an optical modem, one or more client signals into a line signal for transmission via the optical modem to the second node using a vendor line adaptation process that maps the one or more client signals into the line signal ; and providing the in-band communication channel based on a line adaptation bandwidth of the line signal for the in-band communication channel using the optical modem , wherein the line adaptation bandwidth is bandwidth due to the mapping of the one or more client signals into the line signal using the vendor line adaptation process, and wherein the in-band communication channel in the line adaptation bandwidth is operationally independent from the one or more client signals while concurrently being transported together over the line signal . adapting, by a circuitry in an optical modem, one or more client signals into a line signal for transmission via the optical modem to the second node using a vendor line adaptation process that maps the one or more client signals into the line signal ; and providing the in-band communication channel based on a line adaptation bandwidth of the line signal for the in-band communication channel using the optical modem , wherein the line adaptation bandwidth is bandwidth due to the mapping of the one or more client signals into the line signal using the vendor line adaptation process, and wherein the in-band communication channel in the line adaptation bandwidth is operationally independent from the one or more client signals while concurrently being transported together over the line signal .
A device for tissue resection in a body lumen, comprising: a body extending along an axis ; a distal cap positioned distally of the body and coupled to an inner shaft extending along the axis, the body and the distal cap being movable relative to each other; an anchoring mechanism capable of engaging the body and the distal cap proximate a selected tissue for resection in the body lumen; a tissue capture device deployable from the tissue resection device such that the selected tissue for resection is securable by the tissue capture device; and a tissue resecting device for resecting the selected tissue for resection. wherein the tissue resecting device is disposed on an outer shaft and the distal cap is disposed on the inner shaft , the tissue resecting device being extendable from the distal cap in response to the inner shaft being movable relative to the outer shaft . a body extending along an axis ; a distal cap positioned distally of the body and coupled to an inner shaft extending along the axis, the body and the distal cap being movable relative to each other; an anchoring mechanism capable of engaging the body and the distal cap proximate a selected tissue for resection in the body lumen; a tissue capture device deployable from the tissue resection device such that the selected tissue for resection is securable by the tissue capture device; and a tissue resecting device for resecting the selected tissue for resection. wherein the tissue resecting device is disposed on an outer shaft and the distal cap is disposed on the inner shaft , the tissue resecting device being extendable from the distal cap in response to the inner shaft being movable relative to the outer shaft .
Induction heating unit for a cooking device, in particular for an induction cooking device, more particularly for an induction hob, comprising - at least one resonant tank with at least one induction heating element , - a power requesting unit for requesting a power (PR) of the at least one induction heating element , - a driving unit for driving the resonant tank , in particular by oscillating the resonant tank by means of a switching element , by a driving signal comprising a series of subsequent sequences for generating a heating power (PH), characterised by each sequence comprising o a first subsequence (S1) with a first alternating signal and with a first subsequence duration (D1), causing an activation of the resonant tank with a predetermined power (PM), o a subsequent second subsequence (S2) with an at least essentially non-alternating signal and with a second subsequence duration (D2), causing a deactivation of the resonant tank and o a subsequent third subsequence (S3) with a second alternating signal and with a third subsequence duration (D3), causing an activation of the resonant tank with less than the predetermined power (PM). - at least one resonant tank with at least one induction heating element , - a power requesting unit for requesting a power (PR) of the at least one induction heating element , - a driving unit for driving the resonant tank , in particular by oscillating the resonant tank by means of a switching element , by a driving signal comprising a series of subsequent sequences for generating a heating power (PH), characterised by o a first subsequence (S1) with a first alternating signal and with a first subsequence duration (D1), causing an activation of the resonant tank with a predetermined power (PM), o a subsequent second subsequence (S2) with an at least essentially non-alternating signal and with a second subsequence duration (D2), causing a deactivation of the resonant tank and o a subsequent third subsequence (S3) with a second alternating signal and with a third subsequence duration (D3), causing an activation of the resonant tank with less than the predetermined power (PM).
Method for manufacturing a panel for supporting at least one cartridge of abradable material for a turbine engine casing, said panel including at least one block of material and a rigid panel covering said block, except for a free outer surface configured to be fixed to an inner surface of the casing , characterised in that it includes: - a step of machining (ET5') the outer surface of the block of material according to a three-dimensional profile configured to match that of the inner surface of the casing , then - a step of fixing (ET6') the machined block to the rigid panel . - a step of machining (ET5') the outer surface of the block of material according to a three-dimensional profile configured to match that of the inner surface of the casing , then - a step of fixing (ET6') the machined block to the rigid panel .
A compound having the following formula I: wherein: X is -N- or -CH-; Y is -N- or -CH-; R 1 is CD 3 , C 1-3 alkyl or C 3-6 cycloalkyl; R 2 is CO- C 3-6 cycloalkyl , C 5-8 aryl or a 5-7 membered heterocyclyl containing 1-4 heteroatoms selected from N, O, and S, substituted with 0-4 R 2a ; R 2a is independently, at each occurrence, hydrogen, halogen, C 1-6 alkyl, C 1-6 alkoxy, C 3-6 cycloalkyl, halo C 1-6 alkyl, hydroxy C 1-6 alkyl, C 5-8 aryl or a 5-7 membered heterocyclyl containing 1-4 heteroatoms selected from N, O, and S, said aryl or heterocyclyl substituted with 0-2 R a ; R a is hydrogen, halogen or C 1-4 alkyl; R 3 is P(O)-(C 1-4 alkyl) 2 ; or a stereoisomer or pharmaceutically-acceptable salt thereof. X is -N- or -CH-; Y is -N- or -CH-; R 1 is CD 3 , C 1-3 alkyl or C 3-6 cycloalkyl; R 2 is CO- C 3-6 cycloalkyl , C 5-8 aryl or a 5-7 membered heterocyclyl containing 1-4 heteroatoms selected from N, O, and S, substituted with 0-4 R 2a ; R 2a is independently, at each occurrence, hydrogen, halogen, C 1-6 alkyl, C 1-6 alkoxy, C 3-6 cycloalkyl, halo C 1-6 alkyl, hydroxy C 1-6 alkyl, C 5-8 aryl or a 5-7 membered heterocyclyl containing 1-4 heteroatoms selected from N, O, and S, said aryl or heterocyclyl substituted with 0-2 R a ; R a is hydrogen, halogen or C 1-4 alkyl; R 3 is P(O)-(C 1-4 alkyl) 2 ; or a stereoisomer or pharmaceutically-acceptable salt thereof.
A terminal device , characterized by comprising: a plurality of optical sensors , wherein the plurality of optical sensors are arranged in a plurality of sub-regions, and each of the plurality of sub-regions has a respective optical parameter; and a processor, configured to: control the optical sensor in each sub-region to, upon detecting a target object, sense the target object with a first optical parameter value and obtain a first sensing signal in each sub-region; determine a target signal range according to the first sensing signal in each sub-region; determine a second optical parameter value with respect to each sub-region according to the first sensing signal in the sub-region and the target signal range; and set a value of the optical parameter of each sub-region to be the second optical parameter value and control the optical sensor in each sub-region to sense the target object with the second optical parameter value and obtain a second sensing signal, wherein the second sensing signal is within the target signal range. a plurality of optical sensors , wherein the plurality of optical sensors are arranged in a plurality of sub-regions, and each of the plurality of sub-regions has a respective optical parameter; and a processor, configured to: control the optical sensor in each sub-region to, upon detecting a target object, sense the target object with a first optical parameter value and obtain a first sensing signal in each sub-region; determine a target signal range according to the first sensing signal in each sub-region; determine a second optical parameter value with respect to each sub-region according to the first sensing signal in the sub-region and the target signal range; and set a value of the optical parameter of each sub-region to be the second optical parameter value and control the optical sensor in each sub-region to sense the target object with the second optical parameter value and obtain a second sensing signal, wherein the second sensing signal is within the target signal range. control the optical sensor in each sub-region to, upon detecting a target object, sense the target object with a first optical parameter value and obtain a first sensing signal in each sub-region; determine a target signal range according to the first sensing signal in each sub-region; determine a second optical parameter value with respect to each sub-region according to the first sensing signal in the sub-region and the target signal range; and set a value of the optical parameter of each sub-region to be the second optical parameter value and control the optical sensor in each sub-region to sense the target object with the second optical parameter value and obtain a second sensing signal, wherein the second sensing signal is within the target signal range.
An expandable fusion device comprising: a first endplate (14; 114) and a second endplate (16; 116), wherein the first (14;114) and second endplates (16; 116) each include at least one mating feature ; an actuation mechanism having a threaded member ; a first ramp configured to mate with both the first (14; 114) and second endplates (16; 116), wherein the first ramp includes a mating feature having a first angle (δ) relative to a vertical axis, wherein the at least one mating feature of the first endplate (14; 114) or second endplate (16; 116) is slidable with respect to the corresponding mating feature disposed on the first ramp ; and wherein the first ramp contains a first bore configured to engage the threaded member and an adjacent bore that may serve as an access port to allow graft material to be delivered, a second ramp (20; 120) configured to mate with both the first (14; 114) and second endplates (16; 116), characterized in that the second ramp (20; 120) includes a mating feature having a second angle (ε) relative to the vertical axis (μ), wherein the first angle (δ) is different from the second angle (ε), and wherein each of the first and second ramps is a wedge having an incline extending in at least two planes. a first endplate (14; 114) and a second endplate (16; 116), wherein the first (14;114) and second endplates (16; 116) each include at least one mating feature ; an actuation mechanism having a threaded member ; a first ramp configured to mate with both the first (14; 114) and second endplates (16; 116), wherein the first ramp includes a mating feature having a first angle (δ) relative to a vertical axis, wherein the at least one mating feature of the first endplate (14; 114) or second endplate (16; 116) is slidable with respect to the corresponding mating feature disposed on the first ramp ; and wherein the first ramp contains a first bore configured to engage the threaded member and an adjacent bore that may serve as an access port to allow graft material to be delivered, a second ramp (20; 120) configured to mate with both the first (14; 114) and second endplates (16; 116), characterized in that the second ramp (20; 120) includes a mating feature having a second angle (ε) relative to the vertical axis (μ), wherein the first angle (δ) is different from the second angle (ε), and wherein each of the first and second ramps is a wedge having an incline extending in at least two planes.
A computer-implemented method of determining regularity of a bio-signal, the method comprising: acquiring a plurality of pulse waveforms of the bio-signal; acquiring a plurality of slope waveforms corresponding to the plurality of pulse waveforms by differentiating the plurality of pulse waveforms; binarizing the plurality of slope waveforms to a first value based on a slope value at each point in time being a positive number, and to a second value based on the slope value at each point in time being a negative number; acquiring synchronization information of the plurality of pulse waveforms being superimposed based on a predefined reference point, based on binarizing the plurality of slope waveforms; acquiring a synchronization rate based on the synchronization information in a reference interval; and determining (216-218, 416-420) whether the bio-signal is regular or irregular based on the synchronization rate. acquiring a plurality of pulse waveforms of the bio-signal; acquiring a plurality of slope waveforms corresponding to the plurality of pulse waveforms by differentiating the plurality of pulse waveforms; binarizing the plurality of slope waveforms to a first value based on a slope value at each point in time being a positive number, and to a second value based on the slope value at each point in time being a negative number; acquiring synchronization information of the plurality of pulse waveforms being superimposed based on a predefined reference point, based on binarizing the plurality of slope waveforms; acquiring a synchronization rate based on the synchronization information in a reference interval; and determining (216-218, 416-420) whether the bio-signal is regular or irregular based on the synchronization rate.