Import Custom Source Code into Raptor Builds

power user tip blog cover

Have you ever wondered if you can import your own custom or legacy source code (*.c/*h files) into a Raptor build?

If you are current with Raptor, the answer is yes!

With Raptor 2018b, you can now  include code from the “slprj” directory. When Simulink generates shared utility code, it is placed in that directory.

How to Import Custom Source Code

There are a couple different ways to import custom source code, but the easiest is by creating a  directory named “Source” in the same directory as the model.

simulink shared utility

How to Call Custom Code

There are two key methods to call custom code while the Raptor ECU is running. The first is by using the Simulink Coder’s “Custom Code” blocks. The second is by writing an S-Function. Here is how to navigate both methods.

METHOD 1: Using Simulink Coder’s “Custom Code” Blocks

Begin by locating the “System Outputs” block. This will generate code specified in the block in the trigger where it is located.

custom code blocks

While this will allow you to call custom code, it does not provide ports. If the function you’re using requires an input or provides outputs, try the next method–writing an S-Function.

METHOD 2: Writing an S-Function

For functions involving ports, writing an  S-Function is a great way to navigate calling custom code. You can learn how to do this by reading the documentation on MathWorks website.

mathworks s funciton documentation screenshot

Stay Current with Raptor

Raptor 2019a will  improve integration with Simulink and its many methods for integrating custom code, including support for:

  1.    Custom Code pane in the Configuration parameters
  2.    MATLAB Functions
  3.    Simulink Functions/Function Callers

To ensure you have access to the upcoming Raptor 2019a update, your software maintenance plan will need to be current. If it is not already,  you can purchase maintenance or update your plan by contacting our team.

Want to be among the first to know about Raptor Releases?

Subscribe to Raptor News. You’ll get notifications about the latest updates, plus exclusive tips to help you get the most out of the Raptor platform.

New Eagle to Exhibit at MathWorks Automotive Conference

mathworks conference

Join New Eagle on April 30, 2019 at the MathWorks Automotive Conference in Plymouth, Michigan. While there, connect with automotive industry leaders to learn about the latest tools, applications and advancements enabled by MATLAB/Simulink.

mathworks automotive conference

Connect with New Eagle at the MathWorks Automotive Conference

Be sure to connect with us at our booth for the opportunity to speak with Ben Hoffman, Director of Raptor Platform, about Raptor, our MathWorks partner product.

Ben will provide in-depth details about how this embedded model-based development platform is expediting technologies’ time-to-market through fast, efficient, and reliable production control solutions. Plus, experience  in-action demos of our Raptor-enabled drive-by-wire Chrysler Pacifica.

Registration for the 2019 conference is free, but required. Sign up on MathWorks’ website or by clicking the button below. 

Conference Details

The 2019 event is held from 8 a.m.- 5 p.m. at the Inn at St. Johns (44045 Five Mile Road, Plymouth, MI 48170). For more information, visit MathWorks’s website.

How the ISO 26262: 2018 Update Affects You

ISO 26262 2018 update

At the end of 2018, the long-awaited update to the ISO 26262 standard was finalized and published. This new version expands the scope of the original 2011 publication to incorporate additional safety measurements and industry segments beyond the original passenger vehicle applications. With this expansion, many of our customers are coming to us with the same questions: Does this updated standard apply to my project and how do I incorporate it into my development process?

Does the ISO 26262 Apply to Your Project?

Although the ISO 26262 standard can seem complex and overwhelming, we can guide you in the right direction and help you to answer the important questions. With our team of Automotive Functional Safety Engineers (AFSEs), we will show you a path to production that incorporates the necessary safety standards that are required for today’s various industries. We will assist your company in clarifying whether the updated ISO 26262 standard applies to your project, conduct a risk assessment of your product and development cycle, provide you with ISO capable hardware, and teach you how to incorporate the required development processes necessary to achieve the safety standard.

What is ISO 26262?

ISO 26262 is an international standard for road vehicles that provides a framework for functional safety throughout the progression of electrical and electronic (E/E) systems development. While some requirements are product specific, others focus on the safety regulations throughout the development lifecycle. These standards demonstrate how companies should integrate functional safety into their development process, providing regulations and recommendations on how to achieve appropriate functional safety measures. To put it simply, this is a common standard that measures and verifies the safety of a system before it is put into service.

ISO 26262 uses a system of steps to provide companies with a way to manage the functional safety and regulate product development on the system, hardware, and software from conceptual development through decommissioning. The steps include administering an automotive risk-based approach to determine the risk classes of a system, called Automotive Safety Integrity Levels (ASILs). It also includes practices that validate and confirm that a vehicle sufficiently reaches an acceptable level of safety.

What Revisions Were Made to ISO 26262 In 2018?

The 2018 revision to the ISO 26262 standard, titled “Road Vehicles – Functional Safety, includes industry feedback and updates based on advances in technology since the standard was originally published. The standard was reconstructed to provide more detailed objectives and extensions to the overall vocabulary. Additions to the ISO standard include:

  • Objective oriented confirmation measures
  • Management of safety anomalies
  • References to cyber-security
  • Updated target values for hardware architecture metrics
  • Evaluation of hardware elements
  • Additional guidance on dependent failure analysis
  • Guidance on fault tolerance, safety-related special characteristics, and software tools.
  • Guidance for model-based development and software safety analysis

In addition, two completely new standards were added to the document: ISO 26262-11 for Semiconductors and ISO 2626-12 for Motorcycles.

The main addition that is concerning our customers is the revision that increases the scope of the standard beyond light-duty, automotive passenger applications to include trucks, buses, trailers, semitrailers, and motorcycles.

How and When Does ISO 26262 Apply to Your Project?

Firstly, let’s address when your system is not required to abide by the newly released ISO 26262 standard. Unique E/E systems in special vehicles are exempt from the standard, including:

  • Mopeds
  • Prototypes
  • Systems designed for drivers with disabilities
  • Systems and any components released for production prior to the publication date
  • Systems and any components under development during the publication date

The standard is intended to be applied to safety-related E/E systems in production road vehicles, which are any vehicle used by or used among the general public. As stated above, this now incorporates trucks, buses, trailers, semitrailers, and motorcycles. In addition, if you are conducting alterations to an existing system that was released for production prior to the publication date, then it falls within the scope of the updated standard.

What Does an ASIL Requirement Mean and How is it Determined?

In order to understand what ASIL requirements are, we must first look at Hazard Analysis and Risk Assessments (HARA). HARAs are used to identify and classify hazardous events caused by malfunctioning behaviors within the system. Each hazard is assessed based on the relative effect the hazardous incident could have on the overall E/E system and is dependent on the probability of the hazard actually manifesting. The assessment also takes into account the severity of potential bodily injuries that could be attained by the driver or other passengers within the relative amount of time the vehicle is exposed to the hazard, as well as the probability of whether a typical driver could prevent injury from occurring. Once all the hazards are assessed, the HARA process creates safety goals to prevent or reduce each hazard, assigning each safety goal an Automotive Safety Integrity Level (ASIL).

ASILs are an automotive specific, risk-based approach that determine the risk classes and integrity levels of each safety goal. They also determine if the safety goals abide by the ISO safety standard. The determination of the ASIL is a function of three variables: exposure, severity, and controllability.

Exposure – how often does the operational situation occur?


Severity – how severe is the potential harm?


Controllability – are the occupants, or operator, able to take control to mitigate any potential injuries?


Since the ISO 26262 standard was originally published in 2011, industry experience and practice in this area has formalized into “SAE J2980 – Considerations for ISO 26262 ASIL Hazard Classification.” This document provides guidelines as to what each level means in a typical scenario. For example, controllability class C2 ‘Normally controllable’ would be true if 90% or more of all drivers are usually able to take control and avoid the specified harm. The guidelines can act as a rule-of-thumb in cases that require a judgement call.

Once these three items are established for each safety goal, the ASIL can be determined using the chart below.


While a “quality managed” (QM) rating signifies that the safety goal is not severe enough to require specific regulations through the standard, those that are will be given a rating of ASIL A through ASIL D depending on the severity.

The determined ASILs will be further refined into Functional Safety Requirements (FSRs), incorporating these same ASIL designations. At some point throughout the development process, the requirements will be allocated to units (e.g. ECUs) for implementation.

The Cost of ASIL Compliance

The cost and complexity of compliance may increase by as much as an order of magnitude with each step, ranging throughout ASIL A to ASIL D. While ASIL A may have small limited effects on the development process, it is assumed that safety goals with an ASIL D rating have significant cost and timing effects for a program.

For example, to plan, execute, verify, and document compliance, the following effort multipliers could be considered:

Functional System : 1
ASIL A : 1.5x – 3x
ASIL B : 2x – 4x
ASIL C : 5x – 8x
ASIL D : 10x+

These multipliers depend heavily on current process maturity, system design, and system requirements. Specific requirements and obligatory work items for software, hardware, and tools are provided within the safety standard.

How Can ASIL Decomposition Save Time and Money?

ISO 26262:9 describes ASIL-oriented and safety-oriented analyses. One of which is ASIL Decomposition, whereby ASIL safety levels and requirements are decomposed over redundant and sufficiently independent elements within your design. As higher ASILs typically require higher costs, decomposition can help to meet safety requirements with reduced cost and effort.

Decomposing the different ASIL levels typically follows a predefined pattern, often occurring over multiple ASIL levels since the ISO standard allows for multilevel decomposition. The figure below shows an example of the decomposition of an ASIL D using three different approaches.

Decomposition of the different ASIL ratings throughout the system can occur over different elements, working down through the system, subsystems, software, and hardware. ASIL decomposition is typically performed manually and must result in redundant safety requirements allocated to design elements of sufficient technical independence. Here at New Eagle, we have certified staff and experience with ASIL tailoring, such as ASIL Decomposition, which may be applied within your project to save cost and time.

Path to Production

Based on your ASIL allocations after decomposition, you need to select an ECU to be utilized in your design that will best meet the requirements defined by the ISO 26262 standard. For each ASIL, you will likely have a list of required diagnostic coverage mechanisms. In a typical safety design, for example, processors integrate a self-checking safety monitor. Additionally, intended hardware typically includes pre-established safety features, such as error correcting code (ECC) and a programmable watchdog timer, to help detect system failures and runtime faults. A modern central processing unit (CPU) will utilize a multicore architecture with a hardware lock-step safety mechanism, which can significantly reduce complexity while improving reliability and availability. These modern architectures include built-in self-test and optimization to prevent common cause failures.

Using an off-the-shelf component in a safety design requires that the component be capable of executing the necessary functions, compatible with your system design, and well documented. Typically, the component would be documented as a Safety Element out of Context (SEooC). It’s important to understand which subcomponents in the ECU can be defined as a safety-critical dependent for an application, as these elements may be used in your safety design. Diagnostic coverage mechanisms must be in place and able to detect dangerous failures within these components in order for them to be used in a safety function. These assumptions should be documented by the ECU vendor within a Safety Manual, and must be taken into account. They provide constraints on the applicability of an off-the-shelf part for any given design.

Here at New Eagle, we have several Raptor™ hardware design options available for production projects that require ISO 26262. These safety capable ECUs target ASIL B – ASIL D, and include a range of I/O and communication interfaces.

electronic control module

  • GCM196 / ECM196 –This ASIL B capable hardware design is built on the standard automotive e-gas monitoring concept commonly used for powertrain control. Depending on the results of ASIL Decomposition, this is an excellent option for multiple safety goals with various ASIL ratings. This control module has three CAN buses, one LIN bus, and a large variety of I/O.
  • C48 – This powerful general-purpose control module is perfect for applications that require advanced performance, timing systems, and functional safety capabilities. The CPU is a high-performance multi-core architecture that can support the highest level of functional safety (ASIL-D).
  • GCM121 – This ASIL C capable, general-purpose control module is perfect for applications that require advanced performance, timing systems, and functional safety capabilities. It has a broad communication capacity with its four CAN buses, two LIN buses, and one Ethernet bus.
  • C112 – This powerful general-purpose control module is perfect for applications that require advanced performance and heavy communication requirements due to its four CAN buses, two LIN buses, and Ethernet capabilities. The CPU is a high-performance multi-core architecture that can support the highest level of functional safety (ASIL-D).

These examples illustrate a range of design options, which can be matched with your system requirements to create a solution compatible with your needs. All ISO 26262 production projects require safety planning and implementation assistance from our Functional Safety Certified staff. Please contact our sales team to discuss our available options.

Important Safety Standard Considerations

It is important to consider ISO 26262 safety standards when developing electronic systems, especially since this standard now incorporates a variety of road vehicle applications. Failing to do so and potentially overlooking possible vehicle malfunctions during the development process could result in liability issues for the manufacturer down the road.

For those companies that are unfamiliar with ISO 26262, seeking consultation from our AFSEs will help you to incorporate the safety standard into your development. Our engineering expertise and line of rugged, ISO 26262 capable hardware design options will help you build an efficient path to production.

April 2019 2Q News: EV and HEV Products

april 2019 news

April has arrived, bringing New Eagle into 2019’s second quarter. With it, comes more robust ways to take control of your machine while managing development timelines and cost.

If you’re planning to start an EV/HEV solution, learn about our

to help get you started.

EV and HEV Products

Great new products join the Raptor family, making it faster, easier and more reliable than ever for you to take your EV/HEV machines on a path from concept to production. Here are a few of our favorite additions:

  • GCM80 joins the Raptor product line as an eVCU offering high-volume ECU with 4 CAN, LIN and seamless integration with Raptor’s development tools and process.
  • HV Heater & A/C options for 400V EV systems from Mitsubishi are production-validated automotive units ideal for EV/HEV projects.
  • Axial Flux Motors from Magelec are permanent magnet motors improving EV efficiency while offering flexible design options.
  • RMS/BorgWarner Next Generation Inverters are designed for volume OEM and heavy equipment EV and HEV applications.

Get details on these and more EV and HEV product options for your on and off-road machines by visiting our Product Wiki.

Starting an EV/HEV Project?

If you’re beginning an electric drivetrain project, request New Eagle’s Feasibility Guide. Created by safety-certified engineers, its valuable insights help navigate this “phase zero” stage of development so your project gets on the best path to production. 

New Eagle Electric Vehicle feasibility guideIdentifying a Production ECU Supplier

For developers navigating the early stages of machine development, selecting a production ECU supplier is one of the most important decisions to make in the process. Unfortunately, it’s not an easy one. Find out what you should ask and look for before selecting a supplier for your project.

new eagle production ecu supplier

May 2019 Raptor Training

Our popular Raptor Training program returns to New Eagle’s Headquarters in Ann Arbor, Michigan on May 7-9, 2019.

In this three day class, attendees will build on the fundamentals of embedded model-based design using the Raptor platforms Raptor-Dev and Raptor-Cal, while applying controls, embedded systems and MATLAB Simulink/Stateflow knowledge.

Space is limited, so register before it runs out!



Featured Application: Electric Rock Crusher

Our application engineering team leveraged Raptor™ to electrify Kolberg-Pioneer’s industrial rock crusher, creating a solution Kolberg-Pioneer hopes to scale to a new generation of electric-power machines. Read how in this case study.kolberg pioneer gt440 electric rock crusher

Stay In-the-Know

Be among the first to know about new product additions, upcoming events, and exclusive insights by subscribing to our eNews.

Drive-By-Wire Kits Widen Horizons for Production-Scale Autonomous Technology

drive-by-wire kits

As autonomous vehicle technology continues its rapid advancement, more and more developers struggle to identify a platform bridging their autonomous command system with vehicular actuation that is easily scaled to production. While there are a number of research-geared solutions on the market, few offer the safe, automotive-grade components necessary for a seamless transition to production.

For developers serious about bringing their autonomous technology to market, a platform comprised of automotive-grade components, like New Eagle’s drive-by-wire kits, could prove the solution they need.

Drive-By-Wire Kits: Uniting AI and Automotive

New Eagle’s drive-by-wire kits allow developers’ AI systems to interface using ROS. Translating these ROS commands into CAN signals, the drive-by-wire kit delivers reliable control over throttle, brake, steering and shifting in production vehicles. Combining production, automotive-grade hardware with proven control software, New Eagle’s drive-by-wire kits offer developers a solution better-aligned to meet production requirements than research-intent alternatives.

Designed with Safety First

Designed by safety-certified engineers, all drive-by-wire kits include seven driver intervention overrides to ensure safe vehicle operation. From command, steering, throttle, shift, brake, and e-stop overrides, to an innovative “heartbeat” system that regularly checks for reliable connection between vehicle and autonomous command center, New Eagle’s drive-by-wire solutions are ideal, safety-focused platforms for advancing autonomous technology to production.

More Kits, More Possibility

With kits available for a growing number of production vehicles including the Toyota Prius, Chrysler Pacifica, Jeep Grand Cherokee, and Volvo Class 8 Truck, autonomous system solutions like the drive-by-wire aren’t just supporting faster and safer development–they’re expanding the horizons for real-world autonomous application.

drive-by-wire vehicles
New Eagle’s drive-by-wire kits for production vehicles enable faster autonomous development on a reliable plug-and-play platform, supporting an expedited path to production for developers’ autonomous technologies.

From passenger mobility to fleet and off-road applications, autonomous advancement is now more accessible than ever with innovative control solutions like the drive-by-wire kit. Learn how New Eagle’s drive-by-wire kit could support your autonomous goals and path to production by discussing your project with our engineers. To see the drive-by-wire kit in action, watch the video below.


Get Autonomous Faster with New Eagle

Raptor-Dev2018b_2.2 (SP1) and Raptor-Cal 2018b_3.0 Releases


Developing an autonomous vehicle? New Eagle’s latest releases are Raptor-Dev2018b_2.2 (SP1) and Raptor-Cal 2018b_3.0. Read the summary below to quickly find out what we have improved. For full details, go to

Raptor-Dev 2018b_2.1 (SP1)

  • Resolved issue with Standard Fault Manager Fault Status Block Use With Iterator
  • Updated GCM80 CAN Baud Rate Configurability
  • BCM48 CAN3 message transmission on power up
  • BCM48 Wake Source Configurability Enhancements

Raptor-Cal 2018b_3.0

  • Improvements for calibration of Fault Manager for Motohawk ECUs
  • Handling of BitField variable types for MotoHawk ECUs
  • Handling of Exponent field on variables for Motohawk ECUs
  • Resolved issue with automatic uninstall of prior version during new installation
  • Several Usability Improvements in Charting & Transfer/Compare Cals

For more information about these latest Raptor updates, read the Raptor Release Notes.

raptor softwareAre You in the Raptor Community?

Subscribe to our Raptor eNews to received exclusive information on our software releases, training options, tips, tricks, and early announcements! It’s the best way to stay in-the-know about innovative ways to take control of your project.

NEWLY RELEASED: Raptor-Dev2018b_2.2 (SP1) and Raptor-Cal 2018b_3.0


As of today, New Eagle’s latest releases are Raptor-Dev2018b_2.2 (SP1) and Raptor-Cal 2018b_3.0! You can view the full details at To get the summary, read on to quickly find out what we improved.

In addition to the releases, we’ve added details about our upcoming Raptor Training class. Register now to take advantage of our early bird special!

Raptor-Dev 2018b_2.1 (SP1)

  • Resolved issue with Standard Fault Manager Fault Status Block Use With Iterator
  • Updated GCM80 CAN Baud Rate Configurability
  • BCM48 CAN3 message transmission on power up
  • BCM48 Wake Source Configurability Enhancements

Raptor-Cal 2018b_3.0

  • Improvements for calibration of Fault Manager for Motohawk ECUs
  • Handling of BitField variable types for MotoHawk ECUs
  • Handling of Exponent field on variables for Motohawk ECUs
  • Resolved issue with automatic uninstall of prior version during new installation
  • Several Usability Improvements in Charting & Transfer/Compare Cals

For more information about these latest Raptor updates, read the Raptor Release Notes.

Register for Spring 2019 Raptor Training

Join us in May for our popular Raptor Training program where you will participate in a three-day embedded model-based controls development course to gain hands-on experience with the Raptor-Dev and Raptor-Cal tools!

Using a throttle body controller project as a guide, you will be introduced to Raptor-Dev in the MATLAB/Simulink library by creating a model intended for a target piece of hardware. You will then use Raptor-CAL to flash the compiled software onto the hardware and to make live calibratable adjustments on the flashed ECU.

With only 10 seats available, registration is on a first come basis. Register by April 5th to take advantage of our EARLY BIRD discount!



Are You in the Raptor Community?

Subscribe to our Raptor eNews to received exclusive information on our software releases, training options, tips, tricks, and early announcements! It’s the best way to stay in-the-know about innovative ways to take control of your project.

What Does It Mean to be a Production ECU Supplier?

new eagle bosch ecu

An electronic control unit (ECU) is the foundation of nearly all machines with mechanical and electronic components. If you think of a machine as a “human body,” then the ECU is its brain. It acts as the command center for components to tell parts how and when to operate with each other and the surrounding environment. Whether temperature regulation, power distribution, or movement control, ECUs keep systems running quickly, safely and efficiently.

For developers navigating the early stages of machine development, selecting a production ECU is one of the most important decisions in this process. Unfortunately, it’s not an easy one to make. There are a lot of ECUs on the market at a variety of price points, so narrowing down one that’s right for you is challenging. Not to mention, choosing a production supplier can have a large effect on your whole project. This decision will affect your project timeline, what resources you need for development and their cost, as well as end system bill of material costs and final quality.

With all these variables in play, where exactly should you start?

ECU Hardware

Since the ECU is the brain of your machine, it should be a high-quality component that economically fits into your system. Consider how a prospective ECU supplier’s hardware stacks up against the competition by asking yourself these four questions:

1. How does the ECU’s quality compare to industry standards?

The ECU you select should be developed to the highest quality standards. Otherwise, you risk problems down the line that could impact end-product quality, customer perception, and your bottom line.

Quality manufacturing processes require significant investment which must spread over many units. Avoid these issues by looking for an ECU from a high-volume supplier.New Eagle Production ECU Supplier2. Is the pricing economical at volume?

Consider scalability. Ask if the supplier can meet your demand and offer volume pricing. These questions will help you maximize your budget and minimize frustrating hold-ups as you scale up from concept to production.

3. Is the production supply chain secure?

You shouldn’t invest in development, tuning, validation, and processes only to discover that the ECU supplier has gone out of business, dropped your ECU selection from its offering, or made a significant change without warning.

Think about supply chain security, or look for an ECU production provider who carefully selects suppliers such as major OEMS, like BOSCH, Continental and Visteon, to provide mass quantities of reliable ECUs. 

4. Can I easily select hardware variants for other applications?

Once you select a production vendor, your team will invest time and resources learning the ECU and its associated products and tools. What happens for your next application or product? Ask targeted questions to find out if you can select other ECUs with minimal changeover effort from your hardware supply chain vendor. For example, is it easy to move software over to another ECU? Do supporting tools or staff training transfer over?

Software Development

Typically, selecting an ECU dictates the next steps for creating the software to drive your system. Since this software development engineering effort usually accounts for a significant amount of a project’s budget, consider these three questions:

1. Is the supplier flexible enough to handle your development plan?

If you plan to work iteratively, make sure your supplier’s tools and processes support fast development. Find out beforehand if you will have to wait weeks to change something like an input/output pin or CAN message definition. If your design changes during development, your software needs to adapt quickly.

2. Do you want to have control over your intellectual property and project timeline, or would you prefer to depend on the ECU production supplier for future software changes?

If you plan to hire an ECU supplier to create a turnkey solution for you, ask if you’ll receive the source code at the end of the project. Know ahead of time if you’ll be able to make minor tweaks to the functionality on your own, or if you will need to re-engage the supplier.

Without the ability to make changes on your own, you’ll lose control of your project’s timeline. Re-engaging down the line is costly and time-consuming, which could lead to missed opportunities for your solution in the market. If intellectual property is considered a part of the value of your company’s solution, then it’s important to determine if you’ll own the software after the project.

3. Do you have additional requirements for data logging and connectivity? If so, have you considered how the ECU selection may influence this?

Custom solutions for data logging or remote connectivity adds significant time, cost, and risk to your project plan. Will you need to provide remote, over-the-air updates for ECUs in your system? Typically, this will require cooperation with the ECU vendor. Before you undertake any engineering efforts to source a supplier, find out what’s already supported or can be provided quickly.

ECU Production Service, Support & Warranty

As the electronic ‘brain’ of your system, the ECU will drive the overall machine operation. Consequently if there’s an issue, oftentimes this stops development progress and puts your business opportunity at risk.

Finally, ask about product warranties. Since each ECU has operation limits for each circuit, you’ll need to be sure your application won’t overwhelm the hardware – will you need support from your vendor to be certain that you aren’t abusing the hardware and thus nullifying a standard warranty?  Will your supplier tailor a Production Supply Agreement specific to their needs? The production supply agreement should include an engineering analysis and documentation of how the customer’s application uses ECU resources, assuring operation within hardware specifications.

Consider these two questions so that you can identify a reliable supplier and avoid these risks.

1. Is the production ECU supplier accessible and responsive?

A motivated supplier is key to your success. With many ECU suppliers only offering support to developers producing over 10,000 units per year, identifying a vendor appropriately-sized for your solution may prove challenging.

Ask a prospective vendor what account size they commonly handle. Frankly, if most of their accounts are 20,000-50,000 units/year, do you think you’ll get first priority when you give them a call and tell them you only have a need for 500 units/year?

2. Does the vendor have templates, intellectual property and training to help you and your team get started quickly?

Your ECU supplier should understand your challenges and offer ways to accelerate time-to-market and continued success. Therefore, ask about application templates, engineering resources and training. Clarify if they’ll add on further training and resources to onboard new additions to your team later on. This willingness to work with you and be flexible with your needs can make a huge impact on your timeline and success.

Contact a Production ECU Supplier Today

We have spent years developing relationships with industry-leading, global suppliers to develop a comprehensive line of products. Our team of experts can identify the best production ECUs to meet the needs of your solution. Contact our team today to discuss how we can work with you to meet your project’s goals!

Get Hands-On Raptor Training In May

Join us for our popular Raptor Training program. Participants of our three-day embedded model-based controls development course will receive a Raptor platform introduction through hands-on experience with the Raptor-Dev and Raptor-Cal tools. raptor training

Get Development Training on Raptor

Tuesday, May 7  – Thursday, May 9, 2019

New Eagle Headquarters, Ann Arbor, MI

With only 10 seats available, registration is on a first come basis. Register by April 5th to take advantage of our EARLY BIRD discount!


If you can’t attend the May training session, subscribe to New Eagle’s Raptor newsletter to stay informed about future classes and important Raptor Platform updates.  

What to Expect in Raptor Training

raptor training agenda


Using a throttle body controller project as a guide, attendees will be introduced to Raptor-Dev in the MATLAB/Simulink library by creating a model intended for a target piece of hardware. Attendees will then use Raptor-CAL to flash the compiled software onto the hardware and to make live calibratable adjustments on the flashed ECU.

On-Site, Customized Raptor Training Options

Can’t make it or prefer a more personalized training of New Eagle’s embedded model-based development tools? New Eagle engineers can travel to your team’s work facility for hands-on instruction catered to your needs.  

To sign up for our course or schedule customized training email us at [email protected].  

We look forward to seeing you in class!

Autonomous Vehicles: Automotive v.s Robotic

Autonomous Vehicle Development

Whether fully autonomous, partially autonomous, or drive-by-wire, before you invest in your autonomous vehicle development, it’s important to have a control system strategy at the core of your project. Though there are many ways to approach system development in the mobility market, automotive and robotic-born strategies tend to be the two dominant schools of thought specific to the autonomous vehicle development sector.

Both automotive and robotics-born approaches share the goal of allowing developers to reach a desired level of autonomy. There are key differences between the two–particularly regarding safety and scalability–that can impact end-vehicles. If you’re not sure what the differences are (or which approach is right for you), keep reading.

Robotic Autonomous Vehicle Control Platforms

Born out of a fast-paced industry focused on research and development, robotic vehicle control platforms offer developers a way to gain a level autonomous control quickly. Typically, these systems are designed solely for research purposes, with inexpensive hardware components strung together in easy, plug-and-play product offerings.

These solutions provide a fast, budget-friendly route to autonomy that is for vehicles being studied in controlled settings. Developers hoping to scale their machines to production may struggle to find a robotic control offering that’s up to task. Prototype-intent hardware and software that fails to meet strict production safety requirements like those outlined in ISO 26262 can prove difficult obstacles to overcome when taking a robotics-born vehicle control platform to production.

If your intent is to build an end-vehicle that will become more than a prototype in a lab, searching for a more sustainable, automotive-grade control platform may prove a better solution.

Automotive Grade Autonomous Vehicle Control Platforms

Unlike its robotics-born competition, automotive-based autonomous control solutions take a different approach to vehicle control. With a focus on safety and scalability, automotive-grade solutions understand that a machine may very well move beyond a controlled environment and into mass-production. Because of this, these solutions typically contain rugged, production hardware and safety-certified control software approaches. This ensures the machine is as safe as it is functional.

Automotive-grade solutions tend to cost more than robotics-based ones, but their ability to scale to production without time-consuming rework makes them worth the higher cost. Some products, like New Eagle’s drive-by-wire kit, even offer the same fast, easy plug-and-play control common to robotics-born solutions on a scalable, automotive-grade platform.

Autonomous Vehicle Development Next Steps

Depending on your timeline, budget and project goals, one control system strategy may align itself better than the other. Whether a research-focused robotic solution, or a safe, production-grade automotive one, if you’re still not sure where to start, consider consulting with our control system experts. Our engineers can provide you with recommendations, next steps, and a road map to successful autonomous vehicle development. Just contact us to get started!


Autonomous Vehicles with New Eagle