Brad Colbert Email & Phone Number

Chicago, Illinois, Us

I initiated efforts in logistics efficiency and sustainability, starting with the integration of an open-source over-the-road routing system. This effort was a thorough process of investigation, adaptation, and deployment, tailored to meet our specific logistical challenges. By customizing this system, I facilitated annual cost savings of hundreds of thousands of dollars, marking a significant milestone in our quest to enhance operational efficiency and environmental stewardship.My exploration into cutting-edge solutions continued with the development of a machine learning model tailored to predict port congestion. This endeavor required a deep dive into data analysis and algorithm optimization, culminating in a tool that significantly improved our strategic planning capabilities. Further amplifying our commitment to sustainability, I designed and deployed a model to calculate CO2 emissions for multi-modal transportation. This initiative demonstrated our dedication to reducing our carbon footprint, embodying a holistic approach to innovation that not only optimizes efficiency but also prioritizes environmental responsibility.

At Facebook's forward-thinking Consumer Products Division, Building 8, I played a pivotal role in sculpting the future of interaction by designing and developing a sophisticated system simulation. This innovation laid the groundwork for a shared augmented reality product, promising to revolutionize the way we connect and experience digital content together.With the NFL's Next Gen Stats, I was instrumental in the critical development and implementation of a predictive tracking capability and a robust data distribution system. This breakthrough not only enriched the fan experience by offering deeper insights into the game but also provided teams with valuable data to inform strategy and performance improvement.An effort to enhance Zebra Technologies' Motionworks, I spearheaded the development of a cutting-edge computer vision-based calibration system. This system goal was to significantly enhanced the accuracy of UWB RFID position tracking, setting new standards in the precision and reliability of real-time asset tracking solutions.

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As a founder and leader of RSC, I've spearheaded the development and management of pioneering projects in both the defense and commercial sectors, with a keen focus on visual and sensor simulation. My approach has consistently been to harness innovative technologies to elevate the realism and effectiveness of simulation systems, making significant strides in training and operational preparedness. This dedication has led to the creation of advanced simulation solutions that seamlessly blend with real-time training systems, enhancing user experience and learning outcomes.My tenure has been marked by the successful oversight of projects worth over $7 million, which have not only supported the Department of Defense's objectives but have also fostered robust collaborations with industry-leading companies. These projects have been instrumental in pushing the envelope of simulation fidelity, introducing state-of-the-art sensor modeling and rendering technologies that have set new industry standards.I am driven by the challenge of transforming complex simulation needs into tangible, cutting-edge solutions. My leadership has guided teams through the intricate process of innovating and deploying location tracking and simulation technologies across various industries, including manufacturing and professional sports. As I look to the future, I am excited about the opportunity to leverage my experience and insights to contribute to new ventures that aim to revolutionize simulation and training methodologies.

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TEAMWorks: designer and developer. Live, tactical, training and evaluation system utilizing position tracking and data analytics.Computer Vision system for tracking animal subjects for ONR research into TBI detection.

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SimHDR: manager, designer, and developer. Physics based multi-spectral radiative transfer model and component based sensor simulation library.Virtual Terrain Board (VTB): manager, designer, and developer. A classroom based night vision goggle (sensor in the loop) and thermal sensor training system.

As a key member of the team that designed and developed RAGE, a pioneering 3D rendering and simulation toolkit, we collectively advanced the deployment of innovative applications for various Department of Defense (DoD) projects. Among our achievements, the development of an advanced Unmanned Aerial Vehicle (UAV) camera operator trainer stands out as a prime example of our collaborative success.This trainer, renowned for its ability to simulate complex operational environments, facilitated the training of operators through its networked platform capable of managing thousands of entities in real-time. Our collaborative effort was pivotal in extending the limits of visibility distances, a critical feature for zooming sensors, which was far beyond the industry standards at the time.Our teamwork and dedication to pushing the boundaries of technology have not only delivered valuable solutions to the DoD but also underscored our collective capacity to tackle challenging requirements and drive forward the evolution of simulation technology in military applications.

In my role at the Naval Research Laboratory's Virtual Reality Lab (Code 5580), I was part of an accomplished team focused on exploring the potential of Virtual Reality (VR) to tackle critical challenges for the US Navy and US Marine Corps. Our collaborative efforts led to the creation of DRAGON, an innovative Virtual Reality battle planning system that transformed strategic planning and situational awareness in military exercises. DRAGON offered unparalleled interactive 3D map views of battle spaces, marking a significant leap forward in joint military operational planning.A notable contribution I made to the project was the development of TerraVis, a utility crafted in Java/OpenGL that rendered Digital Terrain Elevation Data (sourced from NGA, formerly NIMA) in 3D. This tool was crucial for generating the detailed 3D maps essential for the DRAGON system, effectively streamlining the map development process for our team.We encountered a significant challenge in ensuring seamless real-time data sharing across various systems, each with its own hardware specifications. This complexity was magnified by the variations in data endianess and word lengths, posing a risk to the interoperability of our system. In response, I spearheaded an IR&D project to investigate the integration of CORBA (Common Object Request Broker Architecture) as a communication layer for collaborative virtual environments. This effort was pivotal in overcoming the interoperability hurdles, facilitating flawless data exchange within the DRAGON system.Throughout my tenure with the team at the Naval Research Laboratory, I developed and honed skills in VR technology, cross-system data integration, and crafting solutions for intricate military challenges. I am keen to bring this rich expertise and collaborative spirit to your organization, contributing to projects that demand technological innovation, teamwork, and a dedication to achieving critical objectives in dynamic environments.

As a member of the AAC team, I played an important role in pioneering in-depth research that utilized artificial neural networks (ANN) to address complex problems for esteemed entities like NASA, the US Air Force, and the US Navy. This groundbreaking work was conducted during an era prior to the advent of GPUs and advanced multi-core processors, underscoring the innovative spirit and technical prowess of our team.In response to the technological constraints of the time, we engineered a cutting-edge solution: a bespoke MIMD neural network processor (NNP), designed as a PCI card to enhance PC capabilities. My contributions were instrumental in the development of this project, where I spearheaded the creation of a comprehensive suite of multi-platform software utilities and APIs tailored for the NNP. My specific responsibility included authoring the assembler utilities critical for programming the NNP, showcasing my technical acumen and coding expertise.Throughout this project, I actively engaged in substantial interactions with a diverse array of stakeholders, ranging from government officials to private sector partners. These interactions not only emphasized my role as a key collaborator but also highlighted my ability to effectively communicate complex technical concepts to a broad audience, ensuring the successful application and integration of our innovations.This experience at AAC not only demonstrates my technical skills and innovative thinking but also underscores my capability to work effectively within a team, lead significant technological initiatives, and foster strong relationships with partners and customers across various sectors.