Patent classifications
A61B2018/00619
Tissue fusing clamp
A tissue fusing clamp comprises a pair of components pivotably attached, having a component end with a finger loop for manipulation of the components, and each component having a fusing end comprising fusing jaws that are able to be motivated towards one another into a closed position. A depressor depresses tissue between the tissue areas to be fused, resulting in a tightening of the tissue after fusing. The fusing jaws may each comprise a fusing element, such as an ultrasonic transducer or laser, that is in electrical communication with a fusing circuit for providing electrical power to the fusing element as desired by a user. The fusing circuit may be controlled by use of a foot switch or other controller that may be manipulated by the user when it is desired to activate the fusing elements.
METHOD FOR CONTROLLING A MODULAR ENERGY SYSTEM USER INTERFACE
A method for controlling a user interface of a modular energy system. The modular energy system comprises a header module and a display screen on which the user interface is displayed. The modular energy system can detect attachment of a first module thereto, control the user interface to display one or more first user interface elements corresponding to the first module, detect attachment of a second module to the modular energy system, control the user interface to resize the one or more first user interface elements to accommodate display of one or more second user interface elements corresponding to the second module, and control the user interface to display the one or more second user interface elements. The various UI elements can correspond to the particular module type that is being connected to the modular energy system.
Method for energy distribution in a surgical modular energy system
A method of operating a modular surgical system including a control module, a first surgical module, and a second surgical module is disclosed. The method includes detachably connecting the first surgical module to the control module by stacking the first surgical module with the control module in a stack configuration, detachably connecting the second surgical module to the first surgical module by stacking the second surgical module with the control module and the first surgical module in the stack configuration, powering up the modular surgical system, and monitoring distribution of power from a power supply of the control module to the first surgical module and the second surgical module.
Electrosurgical system
- John R. Brustad ,
- Zoran Falkenstein ,
- Christopher J. Cappello ,
- Gary M. Johnson ,
- Benjamin A. Gianneschi ,
- Olivia J. Tran ,
- Matthew A. Wixey ,
- Kennii Pravongviengkham ,
- Boun Pravong ,
- Haruyasu Yawata ,
- Matthew M. Becerra ,
- Adam J. Cohen ,
- Nabil Hilal ,
- Edward D. Pingleton ,
- Said S. Hilal ,
- Charles C. Hart ,
- Chris R. Wikoff
An electrosurgical system can include an electrosurgical generator, a feedback circuit or controller, and an electrosurgical tool. The feedback circuit can provide an electrosurgery endpoint by determining the phase end point of a tissue to be treated. The electrosurgical system can include more than one electrosurgical tool for different electrosurgical operations and can include a variety of user interface features and audio/visual performance indicators. The electrosurgical system can also power conventional bipolar electrosurgical tools and direct current surgical appliances.
Tissue joiner
Developed is a tissue joining device for endoscopic surgery, which can be used in NOTES, or the like. As a result of intensive studies carried out to solve the problem described above, the inventors of the present invention have conceived of two tissue joining device having quite novel structures and completed the present invention.
METHOD OF OPERATING AN ARTICULATING ULTRASONIC SURGICAL INSTRUMENT
- Barry C. Worrell ,
- Benjamin J. Danziger ,
- Benjamin D. Dickerson ,
- Brian D. Black ,
- Cara L. Shapiro ,
- Charles J. Scheib ,
- Craig N. Faller ,
- Daniel J. Mumaw ,
- David J. Cagle ,
- David T. Martin ,
- David A. Monroe ,
- Disha V. Estera ,
- Foster B. Stulen ,
- Frederick L. Estera ,
- Geoffrey S. Strobl ,
- Gregory W. Johnson ,
- Jacob S. Gee ,
- Jason R. Sullivan ,
- Jeffrey D. Messerly ,
- Jeffrey S. Swayze ,
- John A. Hibner ,
- John B. Schulte ,
- Joseph E. Hollo ,
- Kristen G. Denzinger ,
- Kristen L. D'Uva ,
- Matthew C. Miller ,
- Michael R. Lamping ,
- Richard W. Timm ,
- Rudolph H. Nobis ,
- Ryan M. Asher ,
- Stephen M. Leuck ,
- Tylor C. Muhlenkamp ,
- William B. Weisenburgh, II ,
- William A. Olson
An apparatus comprises a body assembly, a shaft, an acoustic waveguide, an articulation section, an end effector, and an articulation drive assembly. The shaft extends distally from the body assembly and defines a longitudinal axis. The acoustic waveguide comprises a flexible portion. The articulation section is coupled with the shaft. A portion of the articulation section encompasses the flexible portion of the waveguide. The articulation section comprises a plurality of body portions aligned along the longitudinal axis and a flexible locking member. The flexible locking member is operable to secure the body portions in relation to each other and in relation to the shaft. The end effector comprises an ultrasonic blade in acoustic communication with the waveguide. The articulation drive assembly is operable to drive articulation of the articulation section to thereby deflect the end effector from the longitudinal axis.
Application of smart ultrasonic blade technology
A method of controlling the temperature of an ultrasonic blade includes applying a power level to an ultrasonic transducer to achieve a desired temperature at an ultrasonic blade coupled to the transducer via an ultrasonic waveguide, inferring a temperature of the blade based on a voltage V.sub.g(t) signal and a current I.sub.g(t) signal applied to the transducer, comparing the inferred temperature of the blade to a predetermined temperature; and adjusting the power level to the transducer based on the comparison. In some aspects, the method includes measuring a phase angle φ between the voltage V.sub.g(t) and the current I.sub.g(t) and inferring the temperature of the blade from the phase angle φ. In some aspects, the method includes measuring an impedance Z.sub.g(t) equal to a ratio of the voltage V.sub.g(t) to the current I.sub.g(t) and inferring the temperature of the blade from the impedance Z.sub.g(t).
MODULAR ENERGY SYSTEM WITH DUAL AMPLIFIERS AND TECHNIQUES FOR UPDATING PARAMETERS THEREOF
A dual amplifier apparatus is disclosed. The apparatus includes an energy module having a controller and a first and second power amplifier circuit coupled to the controller. The first and second power amplifier circuits are configured to receive and amplify an input signal to generate a first output signal into a load coupled to the output of the first and second power amplifier circuit. A power rating of the first amplifier circuit is different from a power rating of the second amplifier circuit. The controller is configured to select the first or the second power amplifier circuit.
Compressible jaw configuration with bipolar RF output electrodes for soft tissue fusion
The present disclosure relates to electrosurgical instruments for use in sealing various tissues. The instrument includes a housing having a shaft attached thereto and an end effector assembly attached to a distal end of the shaft, wherein the end effector assembly includes first and second jaw members attached thereto. The jaw members are movable relative to one another from a first position for approximating tissue to at least one additional position for grasping tissue therebetween. The jaw members have an elastomeric material disposed on an inner facing tissue contacting surface thereof with the elastomeric materials including an electrode disposed therein. The electrodes are offset a distance X relative to one another such that when the jaw members are closed about the tissue and when the electrodes are activated, electrosurgical energy flows through the tissue in a generally coplanar manner relative to the tissue contacting surfaces.
Vessel sensing for adaptive advanced hemostasis
An ultrasonic device may include an electromechanical ultrasonic system that includes an ultrasonic transducer coupled to an ultrasonic blade. A method of delivering energy to the ultrasonic device may include sensing a vessel type in contact with the blade, determining that the vessel type is either a vein or an artery, and delivering power to the transducer based on the vessel type. Power may be applied to the transducer at a power level P that differs from a nominal power level Pn for a period T that differs from a nominal period Tn based on the vessel. The power level P may be lower than Pn for a period T that is longer than Tn when the vessel is a vein. Alternatively, the power level P my be greater than Pn for a period T that is shorter than Tn when the vessel is an artery.