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公开(公告)号:US12076073B2
公开(公告)日:2024-09-03
申请号:US16725020
申请日:2019-12-23
Applicant: Medtronic, Inc.
Inventor: Steven J. Fraasch , Catherine R. Condie , Trenton J. Rehberger , Mark T. Stewart , Qin Zhang
CPC classification number: A61B18/1233 , A61B18/1206 , A61B18/1492 , A61B2018/00357 , A61B2018/00398 , A61B2018/00577 , A61B2018/00666 , A61B2018/00708 , A61B2018/00875 , A61B2018/00898 , A61B2018/1273 , A61B2018/128 , A61B2018/1407 , A61B2018/162 , A61N2001/083
Abstract: Systems and methods to confirm safe delivery of treatment energy to a patient by identifying a presence of a fault in an energy delivery pathway and identifying a location of the fault within the device. The system includes a processing unit configured to calculate blood impedances external to the device based on known impedance characteristics of the device, and then to calculate impedances within the device during energy delivery based on the calculated blood impedances. The processing unit prevents the delivery of energy in an energy delivery pathway that is determined to be compromised. The processing unit is also configured to compare times for two different frequencies to travel a predetermined distance, the difference in the times corresponding to a location of a fault within the energy delivery pathway.
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公开(公告)号:US12076010B2
公开(公告)日:2024-09-03
申请号:US17022394
申请日:2020-09-16
Applicant: Cilag GmbH International
Inventor: Frederick E. Shelton, IV , Jason L. Harris , David C. Yates , Chad E. Eckert , Jordan B. Wong
IPC: A61B34/37 , A61B1/00 , A61B5/00 , A61B5/01 , A61B5/053 , A61B17/072 , A61B17/29 , A61B17/32 , A61B18/08 , A61B18/10 , A61B18/12 , A61B18/14 , A61B34/20 , A61B34/35 , A61B90/00 , A61B90/96 , A61B90/98 , G16H40/63 , A61B17/00 , A61B18/00 , A61B34/00 , A61F7/00
CPC classification number: A61B17/07207 , A61B1/00011 , A61B5/0053 , A61B5/01 , A61B5/053 , A61B5/4848 , A61B17/29 , A61B17/320092 , A61B18/085 , A61B18/10 , A61B18/1206 , A61B18/1445 , A61B34/20 , A61B34/35 , A61B34/37 , A61B90/361 , A61B90/37 , A61B90/96 , A61B90/98 , G16H40/63 , A61B2017/00017 , A61B2017/00022 , A61B2017/00026 , A61B2017/00061 , A61B2017/00084 , A61B2017/00115 , A61B2017/00199 , A61B2017/00221 , A61B2017/00398 , A61B2017/00734 , A61B2017/00938 , A61B2017/07214 , A61B2017/07257 , A61B2017/07271 , A61B2017/07285 , A61B2017/2927 , A61B2018/00601 , A61B2018/00607 , A61B2018/0063 , A61B2018/00642 , A61B2018/00702 , A61B2018/0072 , A61B2018/00726 , A61B2018/00767 , A61B2018/00791 , A61B2018/00875 , A61B2018/00982 , A61B2018/00994 , A61B2018/1253 , A61B2018/126 , A61B2018/1273 , A61B2018/1455 , A61B2034/2046 , A61B2034/2051 , A61B2034/2059 , A61B34/74 , A61B2034/742 , A61B2034/743 , A61B2034/744 , A61B2090/061 , A61B2090/064 , A61B2090/065 , A61B2090/066 , A61B2090/0807 , A61B2090/0811 , A61B2090/364 , A61B2217/002 , A61B2217/005 , A61B2217/007 , A61B2218/002 , A61B2218/006 , A61B2218/008 , A61B2562/0247 , A61B2562/08 , A61F7/00
Abstract: Various cartridge assemblies for surgical instruments are provided. Cartridge assemblies can include active sensors for applying stimuli to a tissue clamped by an end effector of the surgical instrument and a circuit configured to determine a tissue type of the tissue according to a change in the tissue parameter detected by the sensor resulting from a stimulus from the active element. Cartridge assemblies can also include physical features and/or stored data that identify the cartridge. Surgical instruments further can be configured to resolve conflicts when the physical features and/or stored data are not consistent with each other in their identification of the cartridge type.
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公开(公告)号:US12042201B2
公开(公告)日:2024-07-23
申请号:US16562125
申请日:2019-09-05
Applicant: Cilag GmbH International
Inventor: Joshua Henderson , Joshua P. Morgan , Andrew W. Carroll , Jeffrey L. Aldridge , Eitan T. Wiener , James M. Vachon
IPC: A61B17/32 , A61B17/072 , A61B18/00 , A61B18/12 , A61B18/14 , A61B18/16 , A61B34/00 , A61B34/20 , A61B34/35 , A61B90/00 , A61B90/90 , G06F8/65 , G16H20/40 , H01R43/26 , H04B5/72 , H04L9/40 , H04L49/25 , H04L67/10 , H04L67/12 , H04M1/72406 , H05K5/00 , A61B17/00 , A61B34/30 , A61B34/37 , A61B90/30 , H04L27/04 , H05K7/02
CPC classification number: A61B18/00 , A61B17/072 , A61B17/320068 , A61B17/320092 , A61B18/1206 , A61B18/1233 , A61B18/1445 , A61B18/16 , A61B34/20 , A61B34/25 , A61B34/35 , A61B34/74 , A61B90/361 , A61B90/90 , G06F8/65 , G16H20/40 , H01R43/26 , H04B5/72 , H04L49/25 , H04L63/0245 , H04L67/10 , H04L67/12 , H04M1/72406 , H05K5/0021 , A61B2017/00026 , A61B2017/00199 , A61B2017/00221 , A61B2017/00225 , A61B2017/00398 , A61B2017/00477 , A61B2017/00526 , A61B2017/00973 , A61B2017/07257 , A61B2017/07271 , A61B2017/07285 , A61B2017/320074 , A61B2018/00178 , A61B2018/00208 , A61B2018/00601 , A61B2018/0063 , A61B2018/00642 , A61B2018/00702 , A61B2018/00708 , A61B2018/0072 , A61B2018/00732 , A61B2018/00767 , A61B2018/00845 , A61B2018/00875 , A61B2018/00916 , A61B2018/0094 , A61B2018/00958 , A61B2018/00994 , A61B2018/1253 , A61B2018/126 , A61B2018/1273 , A61B2018/128 , A61B2018/1286 , A61B2018/165 , A61B2034/2048 , A61B2034/2055 , A61B2034/305 , A61B34/37 , A61B90/30 , A61B90/37 , A61B2090/371 , A61B2090/378 , A61B2218/002 , A61B2218/007 , A61B2218/008 , A61B2560/0443 , A61B2560/0456 , H01R2201/12 , H04L27/04 , H05K5/0026 , H05K5/0065 , H05K7/023
Abstract: A method for controlling an output of an energy module of a modular energy system is disclosed. The modular energy system includes a header module, the energy module, and a secondary module communicably coupled together. The energy module configured to provide an output driving an energy modality deliverable by a surgical instrument connected thereto. The method includes causing the energy module to provide the output driving the energy modality delivered by the surgical instrument; sensing a parameter associated with the secondary module; receiving the parameter as sensed by the secondary module at the energy module; and adjusting the output of the energy module from a first state to a second state according to the received parameter.
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公开(公告)号:US11998258B2
公开(公告)日:2024-06-04
申请号:US16562180
申请日:2019-09-05
Applicant: Cilag GmbH International
Inventor: Joshua Henderson , Joshua P. Morgan , Eitan T. Wiener , Ryan M. Asher , Brendan J. Oberkircher , John B. Schulte , John E. Hein , James R. Hoch
IPC: A61B18/00 , A61B17/072 , A61B17/32 , A61B18/12 , A61B18/14 , A61B18/16 , A61B34/00 , A61B34/20 , A61B34/35 , A61B90/00 , A61B90/90 , G06F8/65 , G16H20/40 , H01R43/26 , H04B5/72 , H04L9/40 , H04L49/25 , H04L67/10 , H04L67/12 , H04M1/72406 , H05K5/00 , A61B17/00 , A61B34/30 , A61B34/37 , A61B90/30 , H04L27/04 , H05K7/02
CPC classification number: A61B18/00 , A61B17/072 , A61B17/320068 , A61B17/320092 , A61B18/1206 , A61B18/1233 , A61B18/1445 , A61B18/16 , A61B34/20 , A61B34/25 , A61B34/35 , A61B34/74 , A61B90/361 , A61B90/90 , G06F8/65 , G16H20/40 , H01R43/26 , H04B5/72 , H04L49/25 , H04L63/0245 , H04L67/10 , H04L67/12 , H04M1/72406 , H05K5/0021 , A61B2017/00026 , A61B2017/00199 , A61B2017/00221 , A61B2017/00225 , A61B2017/00398 , A61B2017/00477 , A61B2017/00526 , A61B2017/00973 , A61B2017/07257 , A61B2017/07271 , A61B2017/07285 , A61B2017/320074 , A61B2018/00178 , A61B2018/00208 , A61B2018/00601 , A61B2018/0063 , A61B2018/00642 , A61B2018/00702 , A61B2018/00708 , A61B2018/0072 , A61B2018/00732 , A61B2018/00767 , A61B2018/00845 , A61B2018/00875 , A61B2018/00916 , A61B2018/0094 , A61B2018/00958 , A61B2018/00994 , A61B2018/1253 , A61B2018/126 , A61B2018/1273 , A61B2018/128 , A61B2018/1286 , A61B2018/165 , A61B2034/2048 , A61B2034/2055 , A61B2034/305 , A61B34/37 , A61B90/30 , A61B90/37 , A61B2090/371 , A61B2090/378 , A61B2218/002 , A61B2218/007 , A61B2218/008 , A61B2560/0443 , A61B2560/0456 , H01R2201/12 , H04L27/04 , H05K5/0026 , H05K5/0065 , H05K7/023
Abstract: An energy module for driving electrosurgical and/or ultrasonic surgical instruments is disclosed. The energy module can include an amplifier assembly that is configured to drive a variety of different energy modalities for one or more surgical instruments connected thereto. The energy module can further include a relay assembly for selectively coupling one or more of the amplifiers to different ports to which the surgical instruments are connectable. The amplifier assembly can include amplifiers for driving ultrasonic, bipolar, and/or monopolar energy.
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公开(公告)号:US11717341B2
公开(公告)日:2023-08-08
申请号:US16189962
申请日:2018-11-13
Applicant: Creo Medical Limited
Inventor: Christopher Paul Hancock , Malcolm White , Nuwan Dharmisiri
IPC: A61B18/12 , A61B18/14 , A61B18/18 , H01P1/36 , H01P5/08 , H01P5/12 , A61B18/00 , H01P1/207 , H01P5/103
CPC classification number: A61B18/1482 , A61B18/1492 , A61B18/1815 , H01P1/36 , H01P5/08 , H01P5/12 , A61B2018/0063 , A61B2018/00327 , A61B2018/00494 , A61B2018/00577 , A61B2018/00601 , A61B2018/00607 , A61B2018/00642 , A61B2018/00702 , A61B2018/00755 , A61B2018/00785 , A61B2018/00869 , A61B2018/00994 , A61B2018/128 , A61B2018/1273 , A61B2018/1293 , A61B2018/1823 , A61B2018/1861 , A61B2018/1876 , A61B2018/1892 , H01P1/207 , H01P5/103
Abstract: An isolating circuit for electrosurgical generator arranged to produce radiofrequency (RF) energy and microwave energy for treating biological tissue. The generator has an RF channel and a microwave channel which are combined at signal combiner to enable the RF energy and microwave energy to be delivered into tissue along a common feed path. The isolating circuit comprises a tunable waveguide isolator at a junction between the microwave channel and signal combiner, and can include a capacitive structure between a ground conductor of the signal combiner and a conductive input section of the waveguide isolator to inhibit coupling of the RF energy and leakage of the microwave energy. The isolating circuit can combine into a single tunable unit all the necessary components to isolate the microwave and RF channels from one another whilst providing a high withstanding voltage.
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公开(公告)号:US20190247108A1
公开(公告)日:2019-08-15
申请号:US15898052
申请日:2018-02-15
Applicant: Biosense Webster (Israel) Ltd.
Inventor: Michael Levin , Boris Ashkinezer , Eyal Rotman , Shlomo Fried Zichron
CPC classification number: A61B18/1206 , A61B18/1492 , A61B2018/00351 , A61B2018/00577 , A61B2018/00702 , A61B2018/00732 , A61B2018/00767 , A61B2018/00791 , A61B2018/00827 , A61B2018/00875 , A61B2018/00892 , A61B2018/1273 , A61B2018/128
Abstract: A plurality of control-signal generators are configured to generate respective control signals having respective control-signal amplitudes and different respective control-signal frequencies, and a plurality of signal adders are configured to produce respective composite signals for application to a subject, by adding the control signals to respective ablation signals having respective ablation-signal amplitudes. The control-signal generators are configured to generate the control signals such that respective ratios between the control-signal amplitudes and the ablation-signal amplitudes are constant during the application of the composite signals to the subject. A plurality of controlled voltage dividers are configured to adjust respective amplitudes of the composite signals during the application of the composite signals to the subject, and one or more controllers are configured to control the adjusting of the amplitudes by the controlled voltage dividers, in response to respective currents of, and respective voltages of, the control signals, and based on the constant ratios.
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公开(公告)号:US20190200986A1
公开(公告)日:2019-07-04
申请号:US16024150
申请日:2018-06-29
Applicant: Ethicon LLC
Inventor: Frederick E. Shelton, IV , Jason L. Harris , David C. Yates
CPC classification number: A61B17/07207 , A61B1/00011 , A61B5/0053 , A61B5/01 , A61B5/053 , A61B5/4848 , A61B17/29 , A61B17/320092 , A61B18/00 , A61B18/1206 , A61B18/1445 , A61B34/20 , A61B34/35 , A61B34/37 , A61B34/74 , A61B90/361 , A61B90/37 , A61B90/96 , A61B90/98 , A61B2017/00017 , A61B2017/00022 , A61B2017/00026 , A61B2017/00061 , A61B2017/00084 , A61B2017/00115 , A61B2017/00199 , A61B2017/00221 , A61B2017/00398 , A61B2017/00734 , A61B2017/00938 , A61B2017/07214 , A61B2017/07257 , A61B2017/07271 , A61B2017/07285 , A61B2017/2927 , A61B2018/00601 , A61B2018/0063 , A61B2018/00791 , A61B2018/00982 , A61B2018/00994 , A61B2018/1253 , A61B2018/126 , A61B2018/1273 , A61B2034/2046 , A61B2034/2051 , A61B2034/2059 , A61B2034/742 , A61B2034/743 , A61B2034/744 , A61B2090/061 , A61B2090/064 , A61B2090/065 , A61B2090/066 , A61B2090/0807 , A61B2090/0811 , A61B2090/364 , A61B2217/002 , A61B2217/005 , A61B2217/007 , A61B2218/002 , A61B2218/006 , A61B2218/008 , A61B2562/0247 , A61B2562/08 , G16H40/63
Abstract: Various cartridge assemblies for surgical instruments are provided. Cartridge assemblies can include active sensors for applying stimuli to a tissue clamped by an end effector of the surgical instrument and a circuit configured to determine a tissue type of the tissue according to a change in the tissue parameter detected by the sensor resulting from a stimulus from the active element. Cartridge assemblies can also include physical features and/or stored data that identify the cartridge. Surgical instruments further can be configured to resolve conflicts when the physical features and/or stored data are not consistent with each other in their identification of the cartridge type.
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公开(公告)号:US09949783B2
公开(公告)日:2018-04-24
申请号:US14592046
申请日:2015-01-08
Applicant: COVIDIEN LP
Inventor: Randall L. Anderson , Donald W. Heckel
CPC classification number: A61B18/1206 , A61B18/1477 , A61B2018/00589 , A61B2018/00601 , A61B2018/00607 , A61B2018/1253 , A61B2018/126 , A61B2018/1273 , A61B2018/128
Abstract: A non-transitory computer-readable storage medium is presented including a power supply module configured to output power, a first energy module configured to receive the power and convert the power into a first waveform having a first phase, and to deliver the power in a first energy mode, and a second energy module configured to receive the power and convert the power into a second waveform having a second phase, and to deliver the power in a second energy mode. A host controller module is configured to control a type and a number of energy modalities provided by the generator platform and a comparator compares the first phase of the first waveform with the second phase of the second waveform in one or more of a plurality of sub-periods. An adjustment module adjusts a relative phase between the first and second waveforms based on results obtained from the comparator.
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公开(公告)号:US20170202591A1
公开(公告)日:2017-07-20
申请号:US15382238
申请日:2016-12-16
Applicant: Ethicon Endo-Surgery, LLC
Inventor: Frederick E. Shelton, IV , David C. Yates , Kevin L. Houser , Jeffrey D. Messerly , Jason L. Harris , Geoffrey S. Strobl
CPC classification number: A61B18/00 , A61B18/1445 , A61B2017/00039 , A61B2017/00123 , A61B2017/003 , A61B2017/00314 , A61B2017/00398 , A61B2017/00464 , A61B2017/00734 , A61B2017/2927 , A61B2017/2929 , A61B2017/320078 , A61B2017/320094 , A61B2017/320095 , A61B2018/00297 , A61B2018/00607 , A61B2018/00648 , A61B2018/00666 , A61B2018/00684 , A61B2018/00708 , A61B2018/00767 , A61B2018/00875 , A61B2018/00886 , A61B2018/00898 , A61B2018/00904 , A61B2018/00922 , A61B2018/00946 , A61B2018/00958 , A61B2018/00994 , A61B2018/1226 , A61B2018/1273 , A61B2018/1455 , A61B2034/252 , A61B2034/731 , A61B2090/061 , A61B2560/0209 , A61B2560/0475 , A61B2562/0219
Abstract: A surgical instrument comprises a shaft assembly comprising a shaft and an end effector coupled to a distal end of the shaft; a handle assembly coupled to a proximal end of the shaft; a battery assembly coupled to the handle assembly; a radio frequency (RF) energy output powered by the battery assembly and configured to apply RF energy to a tissue; an ultrasonic energy output powered by the battery assembly and configured to apply ultrasonic energy to the tissue; and a controller configured to, based at least in part on a measured tissue characteristic, start application of RF energy by the RF energy output or application of ultrasonic energy by the ultrasonic energy output at a first time.
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公开(公告)号:US09655677B2
公开(公告)日:2017-05-23
申请号:US15339745
申请日:2016-10-31
Applicant: SHIFAMED HOLDINGS, LLC
Inventor: Amr Salahieh , Jonah Lepak , Emma Lepak , Brian D. Brandt , John P. Claude , Tom Saul
IPC: A61B18/12 , A61B18/14 , A61B5/042 , A61B1/05 , A61B1/06 , A61B5/01 , A61M25/10 , A61B18/00 , A61B5/00 , A61N5/02 , A61N1/05 , A61B18/18 , A61M25/01 , A61M25/04 , A61B17/00 , A61B17/22 , A61B18/02 , A61M25/06 , A61B90/00
CPC classification number: A61B18/1492 , A61B1/00082 , A61B1/00179 , A61B1/05 , A61B1/06 , A61B1/0623 , A61B1/0684 , A61B5/01 , A61B5/0422 , A61B5/6843 , A61B5/6853 , A61B5/6855 , A61B5/6858 , A61B18/1206 , A61B18/1815 , A61B2017/003 , A61B2017/00867 , A61B2017/22038 , A61B2018/00011 , A61B2018/00023 , A61B2018/00029 , A61B2018/00083 , A61B2018/0016 , A61B2018/00214 , A61B2018/0022 , A61B2018/00232 , A61B2018/00238 , A61B2018/00267 , A61B2018/00285 , A61B2018/00291 , A61B2018/00351 , A61B2018/00357 , A61B2018/00363 , A61B2018/00375 , A61B2018/00577 , A61B2018/00613 , A61B2018/00642 , A61B2018/00702 , A61B2018/00744 , A61B2018/00791 , A61B2018/00797 , A61B2018/00839 , A61B2018/00898 , A61B2018/0212 , A61B2018/0262 , A61B2018/124 , A61B2018/1273 , A61B2018/1465 , A61B2018/1467 , A61B2090/065 , A61B2090/3966 , A61B2217/007 , A61B2218/002 , A61B2218/007 , A61B2562/125 , A61B2562/164 , A61M25/0108 , A61M25/0133 , A61M25/0147 , A61M25/04 , A61M25/10 , A61M25/1011 , A61M2025/0681 , A61N1/05 , A61N5/02 , C08L2201/12
Abstract: Cardiac tissue ablation catheters including an inflatable and flexible toroidal or spherically shaped balloon disposed at a distal region of an elongate member, a flexible circuit carried by an outer surface of the balloon, the flexible circuit including, a plurality of flexible branches conforming to the radially outer surface of the balloon, each of the plurality of flexible branches including a substrate, a conductive trace carried by the substrate, and an ablation electrode carried by the substrate, the ablation electrode in electrical communication with the conductive trace, and an elongate shaft comprising a guidewire lumen extending in the elongate member and extending from a proximal region of the inflatable balloon to distal region of the inflatable balloon and being disposed within the inflatable balloon, wherein a distal region of the elongate shaft is secured directly or indirectly to the distal region of the inflatable balloon.
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