VITA PERSONAS

Emil Kheyfets, Director, Technical Business Development, Aitech

Emil Kheyfets is Director of Technical Business Development at Aitech. His more than 30 years of experience in engineering, engineering management and business development include many technical accomplishments in embedded rugged computing programs for Mil-Aero and Space applications.

Emil held various engineering and managerial roles with VISTA Controls/Curtiss Wright Embedded Computing and Applied Display Technology prior to joining Aitech and has been an active member of VITA since 2004 (VITA 46 and VITA 65OpenVPX Working Groups). He holds an MSEE in Electrical Engineering from Moscow University of Radio-Electronics and Automation.

WORK WITH VITA

1.      How does VPX influence SWaP-optimization in embedded computing systems?

High data throughput requirements of most modern systems make VPX a preferred standard of choice due to its high speed signals support. Technology advancements have enabled more functionality on 3U VPX cards, and 3U VPX systems are replacing larger legacy 6U VME/cPCI systems by providing SWaP-optimization for embedded computing systems. The introduction of the 3U VPX short concept will allow VPX to support even smaller system sizes.

2.      Why is the connection between VPX and SOSA so important to building modern military systems?

SOSA is based on a subset of VPX slot profiles and modules/backplanes requirements. Leveraging the VPX standard in SOSA simplifies the SOSA standard creation effort, and it simplifies SOSA-aligned hardware development for hardware vendors, based on their existing VPX cards and systems.

WHY ENGINEERING?

1.      Did you always want to be an engineer? If so, why?  If not, how’d you wind up here?

I always wanted to be an engineer. My father was a power supplies designer, and I was attracted to electronics since childhood. I built my first Z80-based computer by myself at home. I started working as an electronics technician after high school, while I was getting my degree in the evenings, and I have been involved in electronics & embedded computing designs during all of my career.

2.      What has surprised you the most about the work you do with embedded computing? 

Technology progress is amazing. Today’s cell phones have higher performance than huge mainframe computers from not long ago. Our ability to provide high performance embedded computing systems in small form factors allows us to support the enhanced capabilities of the equipment and machines where embedded systems are used.

3.      What is one of the biggest issue currently facing engineers?

Component obsolescence. In some cases, designs become obsolete before they get into production.

4.      What advice would you give to someone looking into this field of engineering?

If you are interested in engineering, embedded computing is a great choice. With the fast pace of technology progress, it never gets boring. Also, you will feel pride when you see a drone or a spacecraft flying with your embedded system inside.

Off the cuff: What’s the most recent show you’ve binge watched?

“Hell’s Kitchen”. Just kidding.

Jason Barr, General Manager, Trenton Systems

Jason Barr is Trenton Systems’ general manager, a role that he assumed in January 2020. He develops people and processes to help Trenton continually improve and better serve its customers. Before becoming general manager, Barr served as Trenton’s director of operations, overseeing planning, procurement, inbound logistics, outbound logistics, and warehousing. Before joining Team Trenton, he served as director of operations at IPA, a leading manufacturer of linen and specialty uniform distribution solutions. He also worked as a senior supply chain engineer at Essendant for nearly six years. He received his Bachelor of Science degree in mechanical engineering from Tennessee Technological University, his Master of Business Administration (MBA) at Georgia College and State University, and his Master of Engineering, Industrial Engineering, at Clemson University.

WORK WITH VITA

1.  Why do you think that open technology standards are important?

With the interoperability and streamlined development offered by open technology standards, customers don’t have to forego a superior product because they are locked in with an incumbent. This places ongoing pressure on technology suppliers to constantly improve and eliminates complacency from the market, ultimately benefiting customers and promoting technological advancement.

2.  Why do you think it’s important for companies to get involved with VITA?

We provide technologies that are critical to lives, livelihoods, and personal and national security.  Involvement with VITA helps ensure that interoperability, security and reliability are inherent in the products we develop, thus enhancing our ability to provide trusted products that meet the needs of our clients. High-performance edge computing solutions feature distinct development requirements and challenges spanning hardware, software, connectivity, platform integration and security. Our continued involvement with VITA enables us to form well-rounded partnerships that include key software and technology providers.

WHY ENGINEERING?

1.  Did you always want to be an engineer? If so, why?  If not, how’d you wind up here?

I’ve always been an engineer. I started building models when I was five years old and loved to take things apart to see how they worked. I could usually put anything I took apart back together; however, there was a day in early 1980s when I took apart my dad’s Nikon F3 camera and was unable to reassemble it. That was a bad day.

2.  What has surprised you the most about the work you do with embedded computing? (or engineering in general)

Now that I’m about 25 years into my career, I’m surprised by how much I continue to learn on a weekly basis. 

3.  What is one of the biggest issues currently facing engineers?

One of the greatest challenges that engineers face is thinking holistically. We can dive deep into a technical problem and become myopic as we focus all our attention on that problem. It’s important to take a step back and look at opportunities with a broader scope. 

4.  What advice would you give to someone looking into this field of engineering?

Seek out opportunities to co-op or work as an intern early in your education. I worked at a research and development lab early in my collegiate career, and it was a great experience. I got hands-on experience with test equipment and test methods. When I later took classes on these subjects, they were no longer abstract concepts. It was remarkable how much other students who had never had real-world experience struggled with those same concepts.

Off the cuff: What’s something interesting you do outside of work?

I am an avid runner. Running helps me relieve stress and think more clearly. It doesn’t matter how challenging the day has been. The endorphins after a long run really give me a positive mindset.

Greg Rocco, Member Technical Staff, MIT Lincoln Laboratory

Greg Rocco is a Technical Staff member at MIT Lincoln Laboratory (MIT-LL), where he started back in 1977, doing both board-level and ASIC designs for signal processing subsystems.

In 1994, Greg joined what is now Mercury Systems as a pre-sales consulting system engineer. At Mercury, he gathered requirements, conceived and architected new product concepts and ushered them through engineering. Greg became very involved with standards work as the lead editor of OpenVPX and editor of VITA 75.0, 75.11, 75.20, 75.22 and 62.0.

When Greg returned to MIT-LL in 2012, he started representing the interests of his sponsors in the standardization process and the COTS ecosystem. He created the OpenVPX tutorial, and started proposing content to OpenVPX. He is editor of OpenVPX, was editor of ANSI/VITA 46.0-2019, participates in several other VITA Working Groups, and participates in the development of the CMOSS, HOST and SOSA standards.

 WORK WITH VITA

1.  As editor of VITA 65 (Open VPX), what are some of the most interesting ways you have seen companies work together towards a common standard?

We do pretty well at ‘coopetition’ within VITA Working Groups; we understand that many of the members are competitors, but we manage to cooperate. In my current role, I have the advantage of not being affiliated with those competing to make products adhering to the standards. It’s really important to make sure that each person with a view has a chance to be heard. If I feel that someone’s idea is not practical, I try to lead a discussion, asking questions, with the goal being they either convince me to go their way or I help them figure out that what they’re proposing may not be the way we should go. It’s important to be open to changing your mind, based on new arguments.

2.  What is your secret to managing all of the diverse inputs you receive?

In order to manage all the input we receive, while reviewing drafts of standards, we maintain comment spreadsheets. This is an important tool in helping us stay organized -- making sure that a comment does not get missed and giving us an audit trail in the event that we need to go back and review how we got to where we are. We can sort comments by section or line numbers enabling us to merge spreadsheets from multiple reviewers and can identify when there are multiple comments associated with the same area of the draft.

WHY ENGINEERING?

1.  Did you always want to be an engineer? If so, why?  If not, how’d you wind up here?

I think I knew I wanted to be an engineer before I knew the word for it. I have memories of wiring up batteries to lights and switches when I was in the first few years of grade school. By junior high and the beginning of high-school, I was building Heath Kits of things like a vacuum tube volt meeting, short wave radio, oscilloscope, television, etc.

I became interested in amateur radio, but was a very shy kid. I preferred to let someone else do the talking. Before I invested in amateur radio equipment, I went to 11^th grade at a high school with a radio station and I became chief engineer. I was also chief engineer of my college radio station. Around this time, I also got access to minicomputers and learned how to program.

2.  What has surprised you the most about the work you do with embedded computing?

Our ability to go at higher and higher data rates over copper backplanes.

3.  What is one of the biggest issue currently facing engineers?

Sometimes not being listened to by upper management. One of the mantras I learned in college that has stuck with me is “the sooner you fix a problem, the cheaper it is to fix”. When engineers see a problem, particularly when a system is safety critical, it is import that they be heard.

4.  What advice would you give to someone looking into this field of engineering?

When considering a job, look at what sorts of things you will actually be doing during your work day; think about whether they are things you want to do. There are many different kinds of engineering jobs, so think about what you like doing. I like interacting with other engineers and leveraging my experience to help create standards. Hence, for where I am at now, working on standards is a good fit.

Off the cuff: How do you stay sane with all the standards discussions activities in which you participate?

It's important to be really organized, pay attention to details and keep good notes. As I am using standards, I keep a list for each standard and of problems I have come across. When the standard is being updated, I pass the issues on to the rest of the Working Group for the standard in question. I set up reminders on my computer to nag me concerning things that need to be done, like which ballots are open and when they will close.

I generate indexes of my notes by subject and contact. I also have good tools for searching emails and files. As I mentioned earlier, we use spreadsheets to keep track of the status/resolution of comments to a draft of a standard.

Lionel Provost, Digital Electronics Expert, Thales

As an electronics enthusiast since the beginning of my studies, I was a board designer for almost 12 years in a very dynamic and innovative company: Interface Concept. By being involved early in complex embedded projects, I had the chance to put my new skills to work on several technologies (Intel and PowerPC CPU, AMD GPU, Altera/Xilinx FPGA, Marvell Ethernet switches) in various form factors (VME, PMC/XMC, VPX, FMC).

I’ve been involved in VITA developments since the first release of ANSI/VITA 46.0 VPX in 2007 and have built a strong culture of standardization and open architectures. Four years ago, I had the opportunity to join Thales as a digital hardware expert. It was a good way for me to be closest to the system and I’m now working on new electronic warfare systems, where open standards and a culture of re-use are increasingly important.

WORK WITH VITA

1. Explain some of the work you’re doing with VITA 46 (VPX) in the hardware you are developing?

I’ve been a VITA 46 user since the beginning of the standard, designing different VPX COTS FPGA, CPU boards. Because I’ve been using the VITA standard for almost 15 years, I know this experience helps me to build better architectures consistent with new standard enhancements.

2. What new design challenges do you see for electronics used in military aircraft, and how can standards help?

The complexity of electronics equipment is increasing. Using standard is a way to make modularity and upgradability possible at reasonable cost.

WHY ENGINEERING?

1. Did you always want to be an engineer? If so, why?  If not, how’d you wind up here?

I didn’t always want to be an engineer, but since early childhood I have always been passionate by building and creating stuff. That led me on the path of engineering, but rather late!

2. What has surprised you the most about the work you do with embedded computing? (or engineering in general)

The variety of topics and the number of possible applications in embedded computing. They are almost infinite, whatever the field.

3. What is one of the biggest issue currently facing engineers?

The incredible evolution of technologies and the ability to integrate them into our equipment is challenging.

4. What advice would you give to someone looking into this field of engineering?

The ability to take a step back from your daily work and learn how to build skills on topics you do not know. This requires a significant effort, but it is an important part of the job to be able to progress.

Off the cuff: What’s the most recent show you’ve binge watched?

Chernobyl: very realistic, didactic and addictive TV mini-series on the world's worst nuclear power plant accident

Michael Munroe, Principal Backplane Architect, Elma Electronic

Working in the interconnect packaging and backplane industry since 1986, Michael has authored and contributed to many industry articles, published in such magazines as Connector Specifier, Electronic Products, Electronic Design, EE Times, COTS Journal, Military Embedded Systems and Military & Aerospace Electronics. He is a major contributor to embedded computing standards, including IEEE 1101.2, CompactPCI, AdvancedTCA, VME64x, VITA 46.x, VITA 65.x and many others.

Michael is a former secretary and treasurer of PICMG and a former vice-chair of the VITA Standards Organization (VSO). He continues to play an active role in VITA and PICMG and is a professional member of the IEEE.

WORK WITH VITA

1. Explain some of the work you’re doing with VITA 65 (OpenVPX).

I contribute to the development and revision of the VPX family of standards as well as the SOSA™ (Sensors Open Systems Architecture) standard. I’m especially focused on the complete interconnect channel and the implementation of high-speed backplanes. Currently I’m involved in the SOSA Hardware Working Group, the SOSA System Management Sub-Committee and the VITA 65.0/.1 standards. Elma has been the first to implement many new Eurocard backplane architectures and was chosen to implement the CMOSS backplane for CERDEC, a predecessor of the SOSA architecture.

2. How is MOSA (Modular Open Systems Approach) impacting standards-based embedded designs and OpenVPX specifically?

Open system architectures began with the PC/micro revolution and then with the industrial acceptance of the VME architecture in the early 80s. Open, modular, backplane-based computer architectures have been a constant throughout my career.

In industrial and defense applications, we depend on a vibrant ecosystem that can meet a wide variety of system requirements from aerospace and mining to rail and autonomous vehicles. VPX depends upon the collaboration of a wide variety of vendors to meet increasingly challenging system requirements. The open standard approach allows multiple organizations to contribute to a common standard that can meet everyone’s current requirements.

WHY ENGINEERING?

1. Did you always want to be an engineer? If so, why? If not, how’d you wind up here?

I have wanted to be an electrical engineer for as long as I can remember. I was first excited to build small motors from nails and magnet wire for a Boy Scout Merit Badge. I went on to obtain my Novice Amateur Radio License and my first copy of the A.R.R.L. Handbook and started building Heath Kits.

However, college was not what I expected, and I dropped out and went to work becoming a machinist for such companies as DuPont and W.L. Gore and Associates. Later, working as a technician in the field of photovoltaics, I eventually found my way back into industrial electronics, where I combined my interest in electronics with my training as a machinist. There are many ways to arrive at any destination, and I can honestly say I have found enjoyment in every job that I’ve held. I come from a family of teachers and I find that much of my work within this industry is really just another form of teaching. I enjoy introducing young and old engineers and technicians to new open architectures.

2. What has surprised you the most about the work you do with embedded computing? (or engineering in general)

The bandwidth and data rate of backplanes continues to astound me. When I first entered this industry, a 3 MHz computer bus was considered very fast. Today, our company is implementing a new SOSA/VPX backplane where every channel will be capable of 25 GBase-KR signaling. This is astounding. The ability of silicon to reliably decode information out of a sea of noise and discontinuities makes much of this work possible.

3. What advice would you give to someone looking into this field of engineering?

Follow the IEEE Code of Ethics and learn to enjoy collaboration with others. Share your knowledge and always be aware of what you don’t know. Remember, if you can’t measure a process, you can’t control it. Every electrical and optical behavior is controlled by physical elements, defined by measurement.

Off the cuff: What’s something interesting you do outside of work?

I enjoy photography, am a hobby bee keeper and spend too much time on Facebook keeping in touch with old friends and my children.

Paul Mesibov, VP of Engineering, Pentek

Paul Mesibov is co-founder of Pentek and holds the position of Vice President of Engineering. He has over 35 years’ experience in the electronics industry and oversees the design and implementation of Pentek’s digital signal processing, software radio and data acquisition products. He is currently an active member of SOSA, PICMIG, VITA, PCI-SIG and IEEE as well as a key contributor to several ANSI standards.  Prior to his current position, he was a design engineer for AP Circuit, Inc. designing active signal processing analog filters and Wavetek, Inc. designing benchtop signal processing filter products. He holds a bachelors and masters degree in Electrical Engineering from the City University of New York.  Aside from Paul's engineering forte, he is also an accomplished musician.

WORK WITH VITA

1. Explain some of the work you’re doing with VITA 49.0 (as known as VRT for VITA Radio Transport) and its recent companion standard, VITA 49.2.

Having been involved in the development of VITA 49 since its inception, I participated in drafting several parts of the original standard and have continued as an active member of the working group to extend its scope and features.  At Pentek, we’ve worked to add these VITA 49.0 protocol engines to several of products over the last eight years, including the latest Quartz RFSoC product line.

2. What is the significance of the new packet classes added to VITA 49.2 in 2017?

These new extensions add support for transmit signals so that precisely-timed waveforms can be generated by D/A converters for radar pulses, counter measures and communication systems. They also add control packets that can control the operational parameters of receivers and transmitters as well as monitor status to verify proper operation. (RELATED: VITA 49.2 Continues to Evolve)

For example, the RFSoC products mentioned generate VITA 49.0 header packets that are appended to data blocks acquired with A/D converters and digital down converters. The headers include metadata for the signals including time-stamp, frequency and bandwidth information.  These packets are extremely useful for distributing radio signals across the network-based radio topologies that are now replacing the older dedicated “stovepipe” architectures.

3. Why is SDR (software-defined radio) an important component of embedded systems?

SDR really means radio equipment whose operating modes are controlled by programming, rather than fixed circuitry, for a particular radio band or signal type. Specifically, SDR means that radio signals are digitized as “close” to the antenna as possible and the traditional sections of radios, like mixers, oscillators, filters and demodulators, are all performed by programmable and configurable digital signal processing blocks. This allows common hardware elements to be re-purposed for a wide range of different signals and different applications. This offers a big savings in SWaP (size, weight and power), which is especially important in aircraft and unmanned vehicles. It also extends the useful life cycle of radio equipment because new features can often be added by software upgrades.

WHY ENGINEERING?

1. Did you always want to be an engineer? If so, why?  If not, how’d you wind up here?

When I was five I wanted to be a “builder.”  I spent the 1960s watching every NASA rocket launch. Looking back on some of the notebooks I have from when I was 12, it’s clear that I liked robots, since I have a whole bunch of drawings showing how I could wire their motors.  I ended up spending my teenage years playing electric guitar, which meant building up guitar amps from old radios.  Next thing I knew, I was in a community college physics class on a field trip to the Princeton Plasma Physics lab visiting their fusion reactor.  Someone asked if there were any electrical engineers in the group.  That’s when I knew what I wanted to do.

2. What has surprised you the most about the work you do with embedded computing? (or engineering in general)

That I’m still doing it.  Seriously though, the surprising thing about electrical engineering is the range and scope of the learning to which a good engineer is exposed.  After almost 40 years as an EE, I know at least something about a wide range of engineering disciplines – not just those I studied in school.  Most good EEs say the same thing.

3. What is one of the biggest issues currently facing engineers?

While the Internet has been a fantastic resource for engineering research – I’d never want to go back to the days of searching the IEEE Proceedings on microfiche – it is not a replacement for critical thinking.  When there is more information than ever to sift through, the ability to put information in context has never been more important.  I suppose that is good advice for everyone, not just engineers.

4. What advice would you give to someone looking into this field of engineering?

Most successful embedded systems engineers are hobbyists.  Play with this stuff at home, too.

Whatever you decide to pursue, make sure you go to a place where there are mentors that you respect and that the culture of the organization promotes learning and intellectual growth.  It’s sometimes hard to know going in, but do what you can to find out.  Working at the right place sets up your whole career. 

Off the cuff:  Tell us your favorite joke.

Q: What is the difference between hardware and software? 

A: Hardware is a thing that if you play with long enough it breaks.  Software is a thing that if you play with long enough it works.

Patrick Collier, Architect – Senior Systems Engineer, Harris

Patrick is an Open Systems Architect and Systems Engineer with Harris Corporation. His focus is on the development and use of open architectures for in space and non-space applications, an area he has been active in since 2009.  In addition to his current work with VITA, Patrick was a lead for the Space Universal Modular Architecture (SUMO), where he worked to incorporate existing space-related standards and architectures into SUMO.

Work with VITA

1. Please explain some of the work you’re doing with VITA & the HOST/SOSA initiative.

I’m a co-founder of SOSA and chair of the hardware working group as well as the co-founder of the Next Generation Space Interconnect Standard (NGSIS), which is an umbrella that includes the SpaceVPX, SpaceVPXLite, and SpaceVNX efforts. I’m also chair of all three space-related VITA working groups.

During my short tenure at NAVAIR (government civilian), I worked on the HOST effort as a hardware lead.

2.  How do you feel this initiative will help the strengthen the embedded computing industry?

SOSA, HOST, CMOSS, SpaceVPX, and all the others are working to create an ecosystem that’s based upon a consensus-based architecture and building blocks that maximize portability and reuse, among other quality attributes that are important to these efforts.

Why Engineering?

1.  Did you always want to be an engineer? If so, why?  If not, how’d you wind up here?

I originally wanted to be an astronaut (go figure) and an Olympic track and field athlete – made it closer to the Olympic dream than the other. 

Science has always been in me.

2.  What has surprised you the most about the work you do with embedded computing? (or engineering in general):

The term “Think outside the box” is very subjective.  Incredible technologies, incredible ideas, and a great potential.  Engineers need to think globally, instead of inside a compartment, to understand the “connectedness” of everything.

3.  What are some of the biggest issues currently facing engineers?

Thinking globally.  Developing outside of their comfort zones.  Engaging with others as part of a larger group with a variety of disparate viewpoints.

4.  What advice would you give to someone looking into this field of engineering?

Consider this field as a mix of science and art.  Think about potentials at a macro level as well at a micro level.  Look to a convergence of a variety of fields and endeavors.

Off the cuff: What’s the most recent show you’ve binge watched?
Games of Thrones – I love dragons!

Steven Devore, Senior Electrical Engineer, Leonardo DRS Signal Solutions

Steve received his B.S. in Electrical Engineering in 2012 from the Pennsylvania State University. His undergraduate studies focused on research programs within the Student Space Programs Laboratory (SSPL) along with initiating a collaborative project with MIT Lincoln Laboratory, using his satellite radio design for first responders. His time at TE Connectivity culminated with a patent for a novel RF interconnect design before joining Leonardo DRS Signal Solutions in 2012. Steve has been an instrumental architect of the system design for the DRS VPX product line and building trusted relationships with customers.

Work with VITA

1.  Explain some of the work you’re doing with VITA & its related standards.

I initiated the VITA 67.3 standard effort in 2012 with a focus in resolving the blind mate coax issues that were forthcoming. After chairing that standard for several years, I shifted my attention to integrating these modules with the VITA 65 standard. After that began successful adoptions, I started a new standard, VITA 66.5, to address the same concerns DRS had with coax, but now in the optical interface space, five years later.

2.  How has being involved in an effort like the CMOSS initiative affected your view of the embedded computing industry?

The CMOSS, SOSA, and HOST standards initiative are the extensions of VITA standards that VSO members had anticipated. Government customers are collecting information throughout industry that is the result of past and present collaboration efforts, and applying it to solve recent needs. I’m encouraged by their openness to industry suggestions, and the willingness of competitors to compromise. It’s been very rewarding to see the standards that I have contributed to, VITA 65, 66.5, and 67.3, being adopted in the next generation of embedded systems.

Why Engineering?

1.  Did you always want to be an engineer? If so, why?  If not, how’d you wind up here?

Yes, since early childhood.

2.  What has surprised you the most about the work you do with embedded computing? (or engineering in general)

The biggest surprise is how many niches exist within the MIL AERO marketspace. Within these niche markets, there’s a strong community where knowledge is shared, but once you go beyond those bounds, everything can change. From the terminology used, to the design process itself, it can be difficult to communicate and effectively collaborate as programs incorporate a wider variance of target applications.

3.  What is one of the biggest issue currently facing engineers?

The largest issue RF engineers are facing today is the consolidation of component vendors. This has forced large obsolescence efforts and limited the breadth of available components for new designs. The positive outlook is that this process creates an opportunity for new, small companies to fill the void with innovative offerings.

4.  What advice would you give to someone looking into this field of engineering?

Don’t be afraid to try multiple specialties early in your schooling and career. It’s key to success in any career choice to determine what you’re passionate about and focus your career to support those passions.


Off the cuff: Tell us your favorite joke.

If God isn't a Penn State Fan, why is the sky blue and white?

Dylan Lang, Standards Development Manager, Samtec Inc.

Dylan was born and raised in Pittsburgh, PA.  He first became interested in electronics in his high-school physics classes and in working with his dad on restoring vintage audio gear.   These motivated him to choose a career based around the subject.  After getting his Associate’s in Electrical Engineering Technology, he lived in Brooklyn, NY for three years doing some volunteer work.  Upon moving back to Pittsburgh, Dylan joined Samtec and has been here ever since.

Work With VITA

1.  Explain some of the work you’re doing with VITA & the upcoming FMC+ standard?

Recently, I have been participating in several VITA marketing efforts as well as putting embedded systems in front of our customers.  In addition, I serve as Editor on several working groups (VITA 57 and VITA 74) and am Chairman of the VNX (VITA 74) Marketing Alliance.

2.  The VITA 57.1 FMC specification defines two connectors: High Pin Count (HPC) and Low Pin Count (LPC). What purpose does each serve in a FMC-based system?

The (LPC) connectors provide 68 user-defined, single-ended signals (or 34 user-defined, differential pairs); (HPC) connectors provide 160 user-defined, single-ended signals (or 80 user-defined, differential pairs), 10 serial transceiver pairs and additional clock.

These prove to be extremely useful when developing on FPGA-based platforms.  Both the LPC and HPC connectors allow for flexibility by providing user-defined pins while maintaining high data rates.

 Why Engineering?

1.  Did you always want to be an engineer? If so, why?  If not, how’d you wind up here?

Originally, I wanted to be a Calculus teacher.  I loved the way mathematics just made sense and the process of logical thinking.  However, I wanted to balance that with my love for electronics, so engineering seemed like a happy medium.

2.  What has surprised you the most about the work you do with embedded computing? (or engineering in general)

I would say the impact of embedded computing on almost everything around us proved to be a wake-up call for me.  From your smart phone to space, embedded computing is everywhere.

3.  What is one of the biggest issues currently facing engineers?

One of the biggest challenges in the embedded realm is designing a solution to please everyone.  With Standards families like VITA, there are so many companies and interested parties that can participate, it can be a challenge to think from so many different angles at once.

4.  What advice would you give to someone looking into this field of engineering?

I would say go for it!  While it can be technically intense and at times seem overwhelming, the results are well worth it in knowing how far-reaching the effects of your efforts are.  So many companies like Facebook, Apple, Intel, and Google thrive on the latest in embedded technologies, so it’s great to be a part of that.

Off the cuff: What’s the most recent show you’ve binge watched?

Not necessarily binge watching, but have been following the NHL playoffs very closely.