All Wednesday seminars are given by Gold or Silver Innovation Leaders
Most abstracts and speaker information is provided in the Track information section below this schedule


Click a track below to see the abstract

Hector Buchelly, Sr. Global Director TMC and Advanced Services, Schneider Electric
How can petrochemical companies schedule longer periods between turnarounds and maintain compliance with industry standards while also achieving top performance, reliability, and efficiency? By utilizing three strategies: mechanical retrofit, integrated turbine and compressor control, and dynamic simulation.

  1. Mechanical Retrofit
    a. To adhere to new standards, having a reliable mechanical system enables a plant to perform maintenance and repairs on-line, and avoid spurious trips. Aged and worn mechanical equipment reduces efficiency and risks safety.
    b. In addition, aging equipment generally can’t accommodate online tests and online maintenance, which are mandatory requirements for a longer time between turnarounds.
    c. To achieve these goals without astronomical costs, plants should replace key components via mechanical retrofit.
    d. This presentation will address several cutting-edge components like triple modular redundant (TMR) servos and quad-redundant trip blocks.
  2. Integrated Turbine and Compressor Control (ITCC)
    a. Integration of the control system is vital to achieving efficiency and peak performance.
    b. Integrated systems—comprised of a prime mover and compressor controls—enhance visualization and speed up control interactions.
    c. Integrated controls enable more robust platforms, cutting-edge algorithms, real-time diagnostics, and smooth troubleshooting.
    d. This presentation will discuss specific ITCC strategies and outline key performance benefits.
  3. Dynamic Simulation
    a. To maximize return on investment, plant engineering focuses on optimizing design and improving operational efficiency. Because turbomachinery has a significant impact on both capital and operating expenditures, plants can directly improve their bottom line by enhancing turbomachinery systems, equipment, and controls.
    b. High-fidelity dynamic simulation enables engineers to ‘test drive’ turbomachinery systems—integrating equipment and controls, and studying interactions among processes. Simulation helps avoid costly errors and improves efficiency in real time.

What attendees will learn:

  • The value and importance of quality mechanical retrofits
  • Importance of integrated turbine and compressor controls
  • How to leverage dynamic simulation to save time and money

Adams Baker, Product Manager, Low-voltage switchgear, Eaton
AGC Glass North America recently completed a major expansion of their Church Hill, TN facility to add a new production line that applies specialized coatings for glass. In an effort to support one the company’s guiding principles, “no production without the assurance of safety,” AGC viewed the plant expansion as the perfect opportunity for its engineers to design the safest and most reliable production environment possible. This goal could be achieved by leveraging the industry’s latest innovations in electrical and arc flash safety. After evaluating the arc flash safety solutions available from a variety of vendors, AGC concluded that Eaton’s Arc Quenching Magnum DS low-voltage switchgear best met their safety, reliability and uptime requirements. Arc Quenching Switchgear enabled AGC to bring the switchgear incident energy to below 1.2 calories per centimeter squared and provide arc-resistant safety while protecting the switchgear from arc flash damage, thereby minimizing production downtime in the event of an arc flash.

What attendees will learn:

  1. Hazard of arc flash
  2. Comparison of solutions to reduce risk of arc flash
  3. Incident energy and how to quantify arc flash risk

Jimmy Miller, North America Process Safety Business Development, Schneider Electric
When implementing any safety instrumented system, rigorous testing and documentation of the application logic is a critical part of realizing any safety instrumented system.

In today’s economic climate, everyone strives for productivity, efficiency and quality gains. The use of modern automated tools and techniques achieve faster time to quality, significantly increase the likelihood of a trouble-free factory acceptance test (FAT) and successful start-up, as well as reduce overall project life cycle cost.

With approval of international standards such as OSHA PSM 1910, ANSI/ISA.S84.01, IEC61508 and IEC61511, testing has become mandatory. Today, tools and processes are available to guarantee consistent, complete and documented testing of the logic, in less time than ever before.

What attendees will learn:

  • Safety standards update with regards to validation
  • Safety Lifecycle validation and testing requirements
  • Scope of automated testing
  • Criteria when selecting an automated tool
  • Practical considerations

Tim Moore, Eaton
On November 30 2018, IEEE published updates to IEEE 1584, IEEE Guide for Performing Arc-Flash Hazard Calculations. The guide provides a new mathematical model to determine arc flash hazard incident energies and boundaries. The new 2018 guide is based on more than 1800 laboratory tests, compared to just 300 tests for the 2002 model. The result is a new mathematical model and calculation procedure that is more comprehensive, accurate and complex than before.

The new standard also drastically changes what equipment in the system is modeled and the way specific equipment types are modeled. These changes require additional analysis, data collection, and special equipment considerations versus the way Arc Flash Studies have previously been performed.

What attendees will learn:

Key changes in the IEEE 1584-2018 standard and the affect on performing / updating Arc Flash studies.

Ethan Koczka, Sales Manager North America, Bartec
With all the digitization going on in the industry today, the data has to connect to a network at some point so it can be useful. For years customers have waited until they reach a safe area to connect to a network and transmit/download their data.

As we push for a more efficient workforce to increase profitability. It makes more and more sense to install Wifi access inside the hazardous areas. iI has never been an easier process than it is today.

What attendees will learn:

Wireless networking is not something we invented, it’s not even something new. Wireless networking in hazardous areas is also, not something new. it has been possible for years, but was very hard to work with, and both cumbersome and expensive to implement. Bartec is making strides to take the work out of installing a wireless network in a hazardous area. We want it to be as easy as possible, so you can use all the new technology around you to make yourself more efficient and of course safer.

Mike Borman, Technical Sales Specialist, Pepperl-Fuchs
In today’s world of industrial mobile computing and communication, including IIoT, we can show you how Pepperl + Fuchs can add value across facilities with our hazardous-area approved mobile devices. It’s all part of a new connected reality with the mobile worker in mind.

What attendees will learn:

  1. Learn how DZ1/DZ2 tablets can be used in facilities to create value/safety/efficiency
  2. Learn about DZ1/DZ2 phone capabilities to create value across facilities
  3. Learn about the “new connected reality”
  4. Learn about identifying ROI opps through mobility apps 5. Learn about the current & future state of enterprise mobility
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