Hourly ContractHourly • Dec 31, 2026
Details
People Needed2
ShiftDays
Hours/Day10
Hours/Week60
Job Description
Travel Conditions
Hours / Round Trip16 hrs
Trips / Month1
Allen Bradley / Rockwell2002 – Henneke - BMW E53 small parts foaming stations. Complete mechanical, electrical and software design to improve the operation for the loading and unloading of 4 x small part stations for small part foaming on a robot foaming line. This required a new design concept from original design due to unreliability problems. 2003 - Mecanizados - BMW E53 and Saturn LS Vac forming Line Design and build a system that would monitor and control the preheat temperature of vinyl sheeting prior to vac forming (laminating) door panels. The new system used a matrix of temperature sensors on the upper and lower heater banks with the temperature control from Siemens HS724 controllers. The system was controlled from an AB SLC504 PLC and the data was captured to a PC based system running RSView32. Microsoft Excel was used as a way to display the vinyl temperature distribution in reatime mode. 2003 – Frimo - BMW Z4 Foaming Station. Modification to the Z4 foaming station to accommodate BMW E53 foaming tools. This would allow a backup for the E53 foaming process should there be a failure on the E53 foaming line. This required electrical redesign, as well as the writing of extensive software routines, including AB SLC505 PLC and HMI programming. 2004 - 400T Ona Vertical Press (X2) – BMW X5 / X6 door panel lower carrier manufacture. Redesign of safety circuits, including safety gates, safety posts and estop circuits. Redesign of electrical controls, machine interface and PLC software program to improve press cycle and machine reliability. 2008 – BMW E70 /E71 New Glovebox Design. Design and build test station for testing operational integrity of the new glovebox design. The tests included opening time, closing force and interior lamp operation. The installation was built into an X5 body in white, with a permanently mount IP. The glovebox on test was installed in the IP to reproduce the correct environment for testing. The control and operation of the Glovebox was through an AB SLC 504 PLC and data captured was transferred to a PC system and stored. The PC would display in realtime data from each cycle and display it in an Excel spreadsheet as a graph. Tolerances were set to monitor repeatability performance as well deviations. Total cycle count was also monitored. To confirm operation over extended operating cycles. Due to the success of the Glovebox testing the system was upgraded to include opening forces for the sunshade option as well as centre console lid operation. 2010 – Henneke - BMW E70 /E71 & VW411 IP Foaming Line Process. Redesign of the existing BMW E70 / E71 IP foaming line process to integrate it with VW411 foaming line process. This involved the design of the VW411 foaming line process as a stand alone system and then integrating the E70 / E71 IP foaming process into it. This integration involved 2 robots, 2 wet systems and 6 foaming stations. Each foaming station was controlled from a Siemens S7 300 series PLC, as was the VW411 wet system. The BMW E70 / E71 wet system was run from an AB SLC 505 system. Of the 2 robots, one had a single mixhead that was used for the BMW foaming process and the second robot had dual mixhead capability which allowed for the BMW or VW foaming process. It was also necessary to allow, where possible, the ability to run either BMW E70 tooling or VW411 tooling at specific stations. All systems were run on a common Profibus network. A SCADA system was developed to capture all necessary process data from each station for traceability purposes. All process data was displayed on a PC based HMI system running RSView32, allowing BMW & VW data to be available in real time.Good-to-Have
FanucI have experience supporting industrial automation and robotics-related projects involving automated production systems, control integration, PLC communication, and commissioning activities in manufacturing environments. My background combines PLC programming, automation engineering, instrumentation, and industrial process control, which allowed me to work alongside robotic and automated systems used in production operations. I have worked extensively with automation systems integrating: PLC-controlled production equipment Motor control and VSD systems Sensors and industrial instrumentation Automated sequences and interlocks HMI/SCADA monitoring systems Industrial communication networks In manufacturing environments, I supported troubleshooting, commissioning, optimization, and automation improvements for systems operating with robotic and automated machinery. My role included: PLC logic development and modifications Signal validation and I/O testing Fault diagnostics and downtime reduction Equipment startup and commissioning Production automation support Electrical and control system troubleshooting Coordination with operations and maintenance teams I also have strong experience integrating automated equipment with: Siemens PLC systems Allen-Bradley / Rockwell systems HMI and SCADA platforms Ethernet/IP and Profinet communication networks One of my key strengths is quickly understanding automated production processes and supporting reliable machine operation through structured troubleshooting and control system optimization. I have successfully supported commissioning and operational improvements in industrial manufacturing environments where automation reliability and uptime were critical. In addition to technical implementation, I have managed automation project activities including: Functional analysis Technical documentation FAT/SAT execution Site supervision Contractor coordination Client communication and reporting My strong field experience, hands-on troubleshooting ability, and understanding of industrial automation systems enable me to work effectively with robotic production environments and multidisciplinary engineering teams. I am comfortable supporting projects remotely or on-site and can adapt quickly to customer standards, production requirements, and new automation technologies including robotic systems such as FANUC-integrated environments.Good-to-Have
KeyenceFor Vision, Sensing & Inspection Systems: Keyence Vision System Integration – IV / XG / CV Series Keyence Vision Sensor Setup – IV2 / IV3 Series Keyence Lighting & Lens Selection for Vision Keyence Smart Camera Calibration & Configuration OCR/OCV and Pattern Matching with Keyence Vision Keyence Vision System with PLC Interface Keyence 3D Laser Profiling – LJ-V / LJ-X8000 Series For Sensors & Safety Devices: Keyence Photoelectric Sensor Integration – PZ / PR Series Keyence Laser Displacement Sensor Setup – IL / LK Series Keyence Area Scanner Integration – SZ / SZ-V Series Keyence Light Curtain Setup – GL-R / SL-V Series Keyence Safety Interlock Device Wiring Keyence Sensor I/O Mapping to PLC Panels For Marking & Measurement (if applicable): Keyence Laser Marker Setup – MD Series Keyence Measurement Systems – IM / TM Series Keyence Barcode Reader Integration – SR SeriesGood-to-Have
