Illinois Tool Works Inc.

Chris John Roehl

Scott Ryan Rozmarynowski

Adam Richard Schmitz

John Carmen Granato, Jr

Craig Steven Knoener

Nicholas James Dessart

Charles Lyle Kaufman

Michael Todd Klegin

Zachary William MacMullen

Lauren Goulet

Bernard J Vogel

Paul William Garvey

Kenneth Austin Stanzel

Andrew James Thielke

Kelley Morrow

Alan Adam Manthe

Tiejun Ma

Ronald Dewayne Woodward

Jeremy John Erdmann

Jason Alan Dunahoo

Benjamin David Romenesko

Maxwell Bode Brock

Gregg Donald Prochnow

Jonathan R Ertmer

Thomas G Yunk

John C Breitbach

Romeo N Cossette

Craig Matthew Bondy

Joshua Thomas Stiever

Jeffery K Arcand

Zachary William Macmullen

Craig M Bondy

Systems and methods are provided for support of low-power operation in training modes in welding machines.

Methods and systems for support of low-power operation in training modes in welding machines

A tool less method of connecting a welding-type power source with a cart is disclosed. In some examples, the cart may be configured to carry one or more gas bottles (and/or cylinders). In some examples, the power source housing and the cart may connect at interfacing ends and/or walls of the housing and cart. A connector, such as a clip for example, may span the interface to connect the power source housing and the cart. Catches (e.g. slots, holes, crevices, and/or protrusions) may be formed in and/or on the power supply housing and/or cart proximate to the interfacing ends and/or walls. In some examples, the catches may be aligned. In some examples, the cart and/or power source housing may include alignment surfaces to assist with alignment. The connector may engage the aligned catches to connect the welding-type power source and cart together at the interface.

Welding power source and cart connectors

Systems and methods are provided for manually setting up a wire drive assembly of a welding power supply and automatically setting up welding power supply parameters. A drive roll is configured with multiple grooves for receiving multiple wires of different types and/or different diameters. A sensor can detect the configuration of the drive roll such as, for example, being configured to receive a particular wire type with a particular diameter in a particular groove, by detect a distance to the drive roll. The welding power supply can use this information to automatically set the wire speed.

Smart drive roll assembly

Systems and methods are provided for selecting welding schedules in welding-type torches. A welding-type torch configured for use during welding-type operations, with the welding-type torch comprising an input device configured for setting a welding-type parameter, such as welding schedules, associated with a welding-type device that is used in conjunction with the welding-type torch during the welding-type operations. The welding-type device may be a welding-type power source. The welding-type torch is connected to the welding-type device via a welding-type connector, with the setting of the welding-type parameter occurring via the welding-type connector and without requiring a change to structure of the welding-type connector. The welding-type parameter is set to one of a plurality of available values, with the input device causes setting the welding-type parameter to a specific value from the plurality of available values only in response to receiving a corresponding specific input associated with that value.

Methods and systems for selecting welding schedules in a welding-type torch

Aspects of a welding-type cable and torch are provided. The welding-type cable includes a power conductor to conduct welding-type power and a weld torch interface on a distal end of the welding-type cable to attach a weld torch to the power conductor. The welding-type torch includes a power connector to transfer welding-type power between the welding-type torch and a power conductor of a welding-type cable that is detachably coupled to the power connector. An electrode to perform a welding-type operation using the welding-type power is also provided.

Multi-process torch

A power conversion assembly for use in a welding power supply includes a power magnetics module and a power electronics module. The power magnetics module includes at least one transformer disposed on a first wind tunnel housing. The power electronics module is separate from and electrically coupled to the power magnetics module. The power electronics module includes switching circuitry and one or more heat sinks to remove heat from the switching circuitry. The switching circuitry and the heat sinks are disposed on a second wind tunnel housing coupled to the first wind tunnel housing.

Modular power conversion system and method

Systems and methods are provided for indicating schedules in welding-type torches. A welding-type system may comprise a welding-type power source, a welding-type torch, driven by the welding-type power source, and a welding-type connector configured for connecting the welding-type power source to the welding-type torch. The welding-type torch may comprise one or more indication components configured for providing, to a user of the welding-type system, indications relating to at least one of operations of the welding-type torch, status of welding-type operations, or welding-type parameters. The one or more indications comprise an indication of a present value of a particular welding-type parameter that pertains to configuration of the welding-type power source; and the one or more indication components are configured to provide the indication of present value of the particular welding-type parameter without requiring a change to structure of the welding-type connector.

Methods and systems for indicating a schedule in a welding-type torch

Apparatus and methods are disclosed of a welding-type system includes a welding-type power supply configured to provide welding-type power. A reel located within a housing of the welding-type power supply. A welding-type cable, the reel configured to wind the welding-type cable to reduce a length of the welding-type cable extending from the housing, and to unwind to increase a length of the welding-type cable extending from the housing at least partially wound around the reel when stored. The welding-type cable includes a first end secured to the reel and electrically connected to the welding-type power supply and a second end configured to provide the welding-type power to at least one welding-type tool.

Retractable work cable

Systems and methods for wire feed speed control are disclosed. An example welding power supply includes a control panel comprising one or more input elements, and control circuitry. The control panel is configured to receive a first input relating to a material thickness and receive a second input to place the welding power supply in a first mode of operation, wherein the first input relates to a wire diameter. The control circuitry is configured to place the welding power supply in the first mode of operation when the first input is received from the one or more input elements; determine a coarse wire feed speed when the welding power supply is in the first mode of operation; receive a third input to fine tune the coarse wire feed speed; and fine tune the coarse wire feed speed based on the received third input.

Systems and methods for wire feed speed control

A method and system to determine optimum operating parameters for the startup phase of a welding-type process based on user-desired operating parameters of the post-startup or welding phase of the welding-type process are disclosed. While applicable to a number of welding-type processes, the method and system are particularly configured to determine an optimum wire feed speed for Gas Metal Arc Welding of aluminum using pulse spray transfer.

Method and system of welding with auto-determined startup parameters

A welding system is disclosed in which the rate of advancement of wire electrode is determined automatically. The device can include a control circuit that determines the rate of advancement of the wire electrode in response to a signal from the voltage selection device of the welding system. Depending upon the operator selected voltage which is selected via the voltage selection device, the control circuit will determine the appropriate rate of wire electrode advancement and control the advancement mechanism (e.g., electric motor) accordingly. Linking of the voltage level and wire-feed speed controls facilities easy of use for more novice operators and, furthermore, facilitates single-handed adjustment of two operational parameters during a welding process.

Welding wire feed speed control system and method

A welding torch has a torch handle. A wire drive assembly is disposed in the torch handle and includes a drive motor and a drive roller. The wire drive assembly contacts the welding wire and is configured to drive the welding wire from a wire feeder to a welding operation. In addition, the welding torch has a trigger and a wire feed speed adjustment assembly. The trigger is disposed near a rear end of the torch handle and is configured to be depressed by an operator for initiating feed of the welding wire. The adjustment assembly is positioned near the rear end of the handle adjacent to the trigger and on the same side of the handle as the trigger. The adjustment assembly allows operator adjustment of a feed speed of the welding wire.

Welding torch with wire feed speed control

A welding system including a fine tuning knob and a coarse adjustment knob for setting a weld wire feed speed are provided. The welding system may include a welder having the coarse adjustment knob and a spool gun having the fine tuning knob. A user may adjust the knob on the welder to set a coarse adjustment wire feed speed and may adjust the knob on the spool gun to fine tune the wire feed speed setting.

A braking system for a welding machine is provided. In one aspect, the braking system includes a brake surface, a spool hub shaft, a spool hub, an adjustment knob and an expandable and compressible member. The spool hub shaft is capable of engaging against the brake surface. The expandable and compressible member is provided between the spool hub and the adjustment knob to apply varying levels of force on the spool hub. The spool hub shaft has at least one tab which is capable of engaging with a recess in the adjustment knob to adjust the force applied by the member on the spool hub.

Growing community of inventors

Appleton, WI, United States of America

Chris John Roehl