121 |
Switch, circuitry, and method of assembly for electrosurgical pencil |
US12456622 |
2009-06-19 |
US20100320067A1 |
2010-12-23 |
Michael Blomeyer |
Formation of an assemblage of electrically conductive components for a new electrosurgical pencil is disclosed, and assembly of those components in a method for automating the manufacture and combination of current carrying metal circuitry and operable switching components in “electrosurgical pencils” which supply current to an active terminal, for application of high frequency or high power electrical current to a surgical site, and control of such current through coaction of the elements of the switch. In manufacture, the design of the switch components allows start-to-finish automated assembly of the switch, in an industry which knows only partially automated assembly, and partial assembly by hand, to create an improved tool for surgical cutting, coagulation, and cauterizing. |
122 |
Switch mechanisms for safe activation of energy on an electrosurgical instrument |
US11180949 |
2005-07-13 |
US07837685B2 |
2010-11-23 |
Craig Weinberg; Robert Sharp; Gary M. Couture; Darren Odom |
Various safe switching mechanisms are provided for use with electrosurgical instruments which prevent arcing between the high-energy contacts as the high-energy source is activated. The switching mechanisms generally include a pair of high-energy contacts and a pair of activation contacts. An actuator is provided which initially engages the high-energy contacts in advance of engagement of the activation contacts to prevent arcing and subsequently disengages the activation contacts in advance of the high-energy contacts as the energy source is deactivated. A method of switching power to an electrosurgical instrument while avoiding damage to high-energy contacts is also disclosed. |
123 |
SWITCHING STRUCTURE AND SURGICAL EQUIPMENT |
US12427824 |
2009-04-22 |
US20100274160A1 |
2010-10-28 |
Chie Yachi; Yoshitaka Fujii |
A switching structure, which controls driving of equipment, includes a handle unit which is provided on the equipment and is held by a user, a switch operation section which is provided on the handle unit and includes a pressure reception portion which is pressed by the user, and a support portion which supports the pressure reception portion such that the pressure reception portion is pivotable about a pivotal center within the handle unit, relative to the handle unit, and also supports the pressure reception portion such that the pressure reception portion can be pushed from a desired direction toward the pivotal center of the pressure reception portion, when the user presses the pressure reception portion. |
124 |
KEYBOARD WITH LIGHTING SYSTEM |
US12477925 |
2009-06-04 |
US20090308722A1 |
2009-12-17 |
Chih-Peng Hsu; Chung-Min Chang; Tung-An Chen; Tse-An Lee |
An exemplary keyboard is provided. The keyboard includes a light pervious base plate, a plurality of input keys, and at least one light source. The light pervious base plate has a top surface. The plurality of input keys are disposed on the light pervious base plate with bottom sides of the input keys facing the top surface of the light pervious base plate. The at least one light source is encapsulated in the light pervious base plate and optically coupled to the light pervious panel. |
125 |
Hand-held surgical instrument with illuminated keypad |
US11277676 |
2006-03-28 |
US07608039B1 |
2009-10-27 |
Erik F. D. Todd |
A hand-held endoscopic surgical instrument, such as a camera or shaver, comprises an illuminated keypad operable by a user to operate the instrument. |
126 |
Four-position rocker switch for electrosurgical handpiece |
US11920706 |
2006-05-17 |
US20090076504A1 |
2009-03-19 |
Uwe Schnitzler |
A surgical apparatus includes an actuation unit disposed on a handle and a control unit providing at least three modes for controlling the electrical instrument. The actuation unit contains a switching rocker with an operating element, which is rotatable about a rocker axis that can be shifted perpendicular to the surface of the handle, so that starting from an initial position a first or second function position can be reached by forwards or backwards rotation about the rocker axis, and a third function position can be reached by pressing the operating element inward, two sensors being disposed on the operating element, one on the left and the other on the right side of the rocker axis, in such a way that by means of the sensors the function position selected by means of the switching rocker can be determined by the control unit. |
127 |
Autoclavable Switch Assembly |
US11747123 |
2007-05-10 |
US07473860B2 |
2009-01-06 |
Philip B. Sample |
A device includes a printed circuit board having a first surface and a second surface. The printed circuit board defines an opening therethrough from the first surface to the second surface and a circuit formed on the first surface of the printed circuit board with no portion of the circuit intersecting the opening. The second surface of the printed circuit board at least partially bounds a first channel in fluid communication with the opening. A method of venting includes displacing air within a cavity of a switch by moving the air through one or more channels formed in a layer defining cut-outs in fluid communication with the cavity. The air is moved through an opening formed in a printed circuit board. The layer is positioned at a first side of the printed circuit board. In addition, the method includes moving the air through a venting channel positioned at a second, opposite side of the printed circuit board and into the surrounding environment. |
128 |
Autoclavable Switch Assembly |
US11747123 |
2007-05-10 |
US20080276453A1 |
2008-11-13 |
Philip B. Sample |
A device includes a printed circuit board having a first surface and a second surface. The printed circuit board defines an opening therethrough from the first surface to the second surface and a circuit formed on the first surface of the printed circuit board with no portion of the circuit intersecting the opening. The second surface of the printed circuit board at least partially bounds a first channel in fluid communication with the opening. A method of venting includes displacing air within a cavity of a switch by moving the air through one or more channels formed in a layer defining cut-outs in fluid communication with the cavity. The air is moved through an opening formed in a printed circuit board. The layer is positioned at a first side of the printed circuit board. In addition, the method includes moving the air through a venting channel positioned at a second, opposite side of the printed circuit board and into the surrounding-environment. |
129 |
Electrosurgical device having a dielectric seal |
US10878865 |
2004-06-28 |
US07311706B2 |
2007-12-25 |
Arthur Schoenman; Joe D. Sartor; Vernita Kelm |
A method of manufacturing a seal in an electrosurgical device includes placing components of the electrosurgical device within an elongated housing section, the housing section including an actuator opening, introducing the housing section within a mold filled with a liquid thermoplastic elastomer and allowing the elastomer to flow within the housing, forming an elastomeric inwardly-extending lip portion circumferentially surrounding an opening at a distal end of the electrosurgical device for introducing an electrode therein, and allowing the molded elastomer to cure and become integral with the housing to seal the components within the molded elastomer contained within the housing section. The method may also include the step of forming an elastomeric actuator seal around the actuator opening. |
130 |
Cover for remote control device |
US11341342 |
2006-01-28 |
US07290654B2 |
2007-11-06 |
Richard P. Hodges |
A disposable cover for use with a remote control device for providing a protective sanitation barrier to human infection includes a rear member having a flat surface. A front curved member is integrally molded in a seamless unitary, one-piece construction with the rear member at a plurality of rounded surfaces to form a single-use, disposable protective enclosure. An anti-bacterial compound impregnates the rear member, the front curved member and the rounded surfaces for destroying bacteria on the remote control device. An orifice is formed in the rear member for enabling the remote control device to be inserted into and removed from the enclosure. Finally, the front member, rear member and the rounded surfaces are comprised of a flexible, stretchable and transparent material for conforming to the shape of the remote control device for providing a disposable, protective sanitation barrier to human infection. |
131 |
Mechanical limiter device |
US11424021 |
2006-06-14 |
US07273992B2 |
2007-09-25 |
Harold B. Kent; James J. LeVante; Aaron T. Fine |
A mechanical limiter device, having: a housing with a slot passing at least partially therearound, the slot forming a plurality of teeth in a side of the housing; a plunger movable within the housing; a biasing mechanism configured to urge the plunger in a proximal direction within the housing; a contact member extending through the slot in the side of the housing, the contact member being configured to advance past at least one of each of the plurality of teeth in the slot each time the plunger is moved back and forth within the housing. The contact member may perform a switching function. |
132 |
Mechanical limiter switch |
US11038575 |
2005-01-21 |
US07256362B2 |
2007-08-14 |
Harold B. Kent; James J. Levante; Aaron T. Fine; Joseph R. Layton |
A mechanical limiter switch for use in a medical or surgical device has a substantially cylindrically shaped housing with a perimeter and an opening in an axial direction. The housing has a pattern along the perimeter. A spring is mounted in the opening along the axial direction, and is pre-stressed for movement in a radial direction and pre-stressed for movement in the axial direction. The spring has a radial member protruding through the pattern of the housing. A plunger is mounted in the opening along the axial direction, abutting the spring for urging the spring in the axial direction and for moving the member in the pattern along the perimeter. After a pre-determined number of activations of the plunger in the axial direction, the member will come to a terminating position and will either contact a pin to establish electrical continuity or at the terminating position break electrical continuity. |
133 |
Mechanical Limiter Device |
US11424021 |
2006-06-14 |
US20060219540A1 |
2006-10-05 |
Harold Kent; James LeVante; Aaron Fine |
A mechanical limiter device, having: a housing with a slot passing at least partially therearound, the slot forming a plurality of teeth in a side of the housing; a plunger movable within the housing; a biasing mechanism configured to urge the plunger in a proximal direction within the housing; a contact member extending through the slot in the side of the housing, the contact member being configured to advance past at least one of each of the plurality of teeth in the slot each time the plunger is moved back and forth within the housing. The contact member may perform a switching function. |
134 |
Mechanical limiter switch |
US11038575 |
2005-01-21 |
US20050252756A1 |
2005-11-17 |
Harold Kent; James Levante; Aaron Fine; Joseph Layton |
A mechanical limiter switch for use in a medical or surgical device has a substantially cylindrically shaped housing with a perimeter and an opening in an axial direction. The housing has a pattern along the perimeter. A spring is mounted in the opening along the axial direction, and is pre-stressed for movement in a radial direction and pre-stressed for movement in the axial direction. The spring has a radial member protruding through the pattern of the housing. A plunger is mounted in the opening along the axial direction, abutting the spring for urging the spring in the axial direction and for moving the member in the pattern along the perimeter. After a pre-determined number of activations of the plunger in the axial direction, the member will come to a terminating position and will either contact a pin to establish electrical continuity or at the terminating position break electrical continuity. |
135 |
Mechanical limiter device |
US10819906 |
2004-04-06 |
US20040245079A1 |
2004-12-09 |
Harold
B.
Kent; James
J.
LeVante; Aaron
T.
Fine |
A mechanical limiter device, having: a housing with a slot passing at least partially therearound, the slot forming a plurality of teeth in a side of the housing; a plunger movable within the housing; a biasing mechanism configured to urge the plunger in a proximal direction within the housing; a contact member extending through the slot in the side of the housing, the contact member being configured to advance past at least one of each of the plurality of teeth in the slot each time the plunger is moved back and forth within the housing. |
136 |
Germ cleanable pull cord |
US10172861 |
2002-06-18 |
US20030231980A1 |
2003-12-18 |
John
S.
Jarmain |
A germ cleanable pull cord includes an inner layer coated with an outer layer. Preferably, one end of the germ cleanable pull cord is knotted and retained in a call box or the like. The outer layer must have a smooth exterior surface free from ridges, pits, projections, or other surface irregularities to prevent germs from being retained thereupon after cleaning. The outer layer must also be able to endure multiple cleanings with a germicidal or antiseptic cleaning medium. |
137 |
Magnetic and mechanical switches |
US10081875 |
2002-02-22 |
US20030160669A1 |
2003-08-28 |
Christian
Trandafir |
The embodiments of the invention include tactile response spring type switches and magnetic connection release switches, especially those switches adapted with backlighting. |
138 |
Foot switch including elastic joint for proper positioning of switch component |
US09992434 |
2001-11-16 |
US06608267B2 |
2003-08-19 |
Klaus Fischer; Ralf Kühner |
A foot switch for use in the control of medical apparatus comprises a pedal that is connected to and movably seated on a floor plate of a joint connection, a sensor linked to a switch element, and a repositioning device disposed between the floor plate and the pedal. The repositioning device ensures that an operating force must be applied to the upper surface of the pedal to produce a tilting movement of the pedal out of an initial position into an operating position in which a smaller angle is defined between the floor plate and the pedal than in the initial position and in which the sensor is activated to trigger the output of a switch pulse from the switch element. The improvement of the present invention consists of the combination of the repositioning device and the joint into an elastic joint device. The simplified foot switch is easily disinfected. |
139 |
Surgical handpiece with self-sealing switch assembly |
US10228298 |
2002-08-26 |
US20030004508A1 |
2003-01-02 |
Roy
Morgan; Heber
Saravia; Jens
Voges; Mani
Prakash |
An bipolar electrosurgical tool (10) for cauterizing or ablating tissue. The tool has a nose cone (12) which serves as a handle. A conductive shaft (14) extends from the nose cone. A tip assembly (18) with an active electrode (20) is mounted to the shaft. A circuit board (78) is mounted in the nose cone. Conductive traces that forming contact pads (96, 102) are formed on the circuit board. A web (108) formed from a single piece of elastomeric material is seated over the opening in which the printed circuit board is mounted to seal the opening shut. Integrally formed with the web are buttons (116, 118) that are in registration over the contact pads. The buttons can be depressed downwardly towards the contact pads. When a button is so depressed, a conductive landing pad (120) integral with the button closes the connection between the traces that form the contact pad. Thus, the tool of this invention is provided with switches. The circuit board also has two conductive traces (92, 104a) that run in parallel. If there is a leak into the nose cone, a connection is established across these traces and shorts out a resistor (105). The shorting out of this resistor provides a control console (22) with an indication that there is a leak. The electrode is formed from a single piece of tantalum. The electrode has a head formed with a hole (172) trough which fluid flows. The electrode is seated in a sleeve (136b) provided with a through bore (177) in registration with the electrode hole. |
140 |
Electrosurgical device having a dielectrical seal |
US09396897 |
1999-09-15 |
US06402748B1 |
2002-06-11 |
Arthur Schoenman; Joe D. Sartor; Vernita Kelm |
An electrosurgical device is provided having at least one elastomeric seal capable of providing bio-contamination and dielectric protection by inhibiting the ingress of fluids and contaminants through the nose and actuator areas. The elastomeric seal is manufactured from a thermoplastic elastomer or resin which while in liquid form is placed within a mold. A housing section having the main circuit components and mechanisms of the electrosurgical device is then placed within the mold. Once the elastomer cures, the elastomeric seal seals the components and mechanisms within the housing partial-section. The elastomeric seal defines a flexible first opening at a distal end of the electrosurgical device to accommodate varying diameters of electrodes or blades connected to the nose area of the electrosurgical device. An actuator seal is also provided on the actuator area of the electrosurgical device to prevent fluids and contaminants from entering the electrosurgical device through the actuator area. Two buttons are insert molded within the actuator seal and are operatively associated with a self-cleaning switching mechanism within the housing section to operate the electrosurgical device between a cutting and coagulating mode. The actuator seal is also manufactured from a thermoplastic elastomer or resin. |