Illinois Tool Works Inc.

Seabery North America Inc.

Nicholas James Dessart

Alan Adam Manthe

Ryan Lawrence Peterson

Robert Raimund Davidson

Thomas Allen Bunker

Richard J Schuh

Michael Allen Sammons

Anthony Joseph Kowaleski

Bruce Alan Casner

William Joshua Becker

Nicholas Alexander Matiash

Thomas Don Lahti

Chris John Roehl

Scott Ryan Rozmarynowski

Mitchell James Muske

Brian James Bornemann

Pavel Gunia

Justin Monroe Blount

Victor López Márquez

Jessica Marie Marhefke

Pedro Marquinez

David Barroso De La Rosa

Jesús Calvo Pérez

Javier Castilla Gutiérrez

Todd Richard Henry

Sergio Garrido Jurado

Sunil Kumar Pattnaik

David Paul Marcusen

Adam Richard Schmitz

Brian Randall Bellile

Daniel James Helein

Craig Steven Knoener

Brian Schwartz

Mark Andrew Ulrich

Warren Edward Herwig

Jeremy John Erdmann

Maxwell Bode Brock

Gregg Donald Prochnow

Alan Edward Stein

Ryan Jerome Lindeman

Jeffrey Michael Herb

Chancelor D Wyatt

Emily Rose Mueller

Amanda Marsicek

Emily R Mueller

Welding device

Systems and apparatus are disclosed relating to smart regulators and smart manifolds for welding-type systems. A smart regulator may be coupled to a fluid tank and provide information regarding the current pressure(s) and/or flow rate to a remote device and/or operator. The remote device may also determine and/or output additional information, such as, for example, remaining fluid and/or remaining time before the fluid runs out or becomes dangerously low. A smart manifold may be configured to work with several different fluid supplies. In this way, an operator may easily mix fluid types, switch between different fluid types, and/or switch between different fluid tanks.

Smart manifolds for welding-type systems

Systems are disclosed relating to a mobile device mounted to a welding helmet such that a wearer of the welding helmet can see a display of the mobile device when wearing the welding helmet. In some examples, the mobile device is mounted such that a camera of the mobile device is unobscured and positioned at approximately eye level, facing the same way the wearer's eyes are facing. In some examples, the simulated training environment may be presented to the user via the display screen of the mobile device, using images captured by the camera of the mobile device, when the mobile device is so mounted to the welding helmet.

Systems for simulating joining operations using mobile devices

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

In some examples, smart spool detection systems use one or more first sensors and/or second sensors to detect and/or determine a first parameter (e.g., size) of a spool that retains filler material (e.g., wire) used by welding-type systems. One or more second sensors are used to detect and/or determine a second parameter of the spool. In some examples, the second parameter may be a weight of the spool, a distance to the filler material (e.g., wire) retained on the spool, and/or an angle of a guide arm lever supported by filler material retained on the spool. The smart spool detection system determines a remaining amount of consumable filler material remaining on the spool using the first and second parameters.

Smart spool detection for welding-type systems

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 disclosed relating to welding-type power supplies. In some examples, the power supplies may have no vents, which may help prevent environmental contaminants from entering the power supplies. Instead, the power supplies include one or more thermal interfaces configured to conduct heat generated by internal circuitry of the power supply from the interior of the power supply to an exterior of the power supply. Additionally, the thermal interface(s) may be configured for attachment to one or more exterior heat dissipating devices.

Welding-type power supplies with expandable thermal interfaces

An adapter assembly includes a coupling portion that couples to a gas metal arc welding (GMAW) wire drive assembly and receives electrical current flow from the GMAW wire drive assembly. Additionally, the adapter assembly includes a receiving portion that couples with a connector of a welding cable of a non-GMAW torch to provide the electrical current flow to the non-GMAW torch from the GMAW wire drive assembly. Further, the adapter assembly includes an insulating component that affixes around the receiving portion.

Welding process wire feeder adapter insulator

A welding system includes power conversion circuitry configured to convert input power to weld power and a first housing surface. The first housing surface includes a first mating geometry configured to mate with a first complementary geometry of a first modular surface of a first modular component of the welding system.

Modular welding system

Welding carts with tool-less securing systems are disclosed. In some examples, a welding cart may be configured to retain and/or transport a welding-type power supply. The cart and power supply may have bracket holes configured to receive bracket ends of a securing bracket. The bracket ends may be received by the bracket holes when a shaft retaining the securing bracket is engaged with a rotational lock of the cart. An actuator connected to the shaft may be configured to rotate the shaft to engage the rotational lock. A resilient member may bias the bracket ends out of the bracket holes when the shaft is disengaged from the rotational lock. A captive fastener attached to the shaft may ensure that the shaft and bracket remain captive to the cart even when the shaft is disengaged from the rotational lock and/or the securing bracket is biased away from the cart.

Welding carts with tool-less securing systems

Growing community of inventors

Appleton, WI, United States of America

Nicholas James Dessart