Master’s in Drag Racing Engineering
About our Master’s in Drag Racing Engineering
The Master’s in Drag Racing Engineering
is an advanced program designed to train drag racing engineers, competition technicians, and motorsport professionals who want to specialize in drag racing competition and the development of high-performance drag racing vehicles. Throughout this Master’s in Drag Racing Engineering, you will work on extreme engine engineering, power and torque management, straight-line traction, specific chassis setup, minimal but efficient aerodynamics, safety under extremely high accelerations, and the strategy of perfect launches over ¼ mile and other distances. This drag racing course focuses on the technical reality of professional and semi-professional drag racing competition, from dragsters and funny cars to prepared production cars and modified street vehicles. The goal is that upon completion of the Master’s in Drag Racing Engineering, you will be capable of designing, analyzing, adjusting, and managing a complete professional drag racing technical project, integrating engine, transmission, tires, chassis, electronics, and data in a real competitive environment.
Master’s in Drag Racing Engineering
- Format:
- Duration:
- Time: 1900 H
- Practices: Consult
- Language:
- Credits:
- Registration date: 24-08-2026
- Start date: 18-10-2026
- Available places: 7
3,900 $
Skills and results
What you will learn
Master’s in Drag Racing Engineering you will gain a deep understanding of the professional and amateur drag racing ecosystem, from the most powerful categories to local cups and acceleration events. You will understand the structure of championships, the role of 1/8 and 1/4 mile tracks, technical and safety regulations, pre-race inspections, and timing rules. This drag racing course will allow you to place yourself on the global map of acceleration motorsport, knowing what each category demands at a technical level and what room for maneuver a drag racing engineer has to improve their vehicle’s performance within the regulations.
You will master the specific fundamentals of longitudinal dynamics and traction applied to drag racing engineering. You will study load transfer during launch, “weight transfer” toward the drive axle, the importance of center of gravity height, mass distribution, anti-squat, rear suspension geometry, and the interaction with large-section tires. You will learn to translate dynamics concepts into practical setup decisions to maximize traction at launch, reduce wheelspin, control wheelie, and make the most of every horsepower. The Master’s in Drag Racing Engineering will give you tools to convert power into effective forward motion on the asphalt.
You will delve into engine engineering for drag racing, understanding the difference between prepared production engines and full-race engines. You will study the sizing of internal components, forced induction (turbo, supercharger, nitrous oxide), fuel management, compression ratio, intake, exhaust, and cooling in a context of extreme stresses over very short but very intense periods. In this drag racing course, you will learn to read engine data, interpret maps, manage reliability under极限 conditions, and work as a drag racing engineer in the continuous improvement of engine performance.
You will learn to design and optimize transmissions and drivelines specific to drag racing. You will examine in detail high-performance automatic transmissions, sequential gearboxes, torque converters, competition clutches, locked differentials, gear ratios, and final drive selection. You will understand how each element affects the acceleration curve, how to match the engine’s power delivery with the actual tire grip, and how to configure the whole system for different categories and power levels. The Master’s in Drag Racing Engineering will teach you to use the transmission as a strategic tool to gain hundredths of a second on every pass.
You will be trained in the design and adjustment of chassis and safety structures for drag racing vehicles. You will analyze tubular chassis, reinforcements, roll cages, engine mounts, stiffness elements, and geometries that allow managing engine torque without dangerous deformations. You will also learn about safety regulations applied to drag racing competition, cage requirements, harnesses, seats, braking parachutes, fire suppression systems, and mandatory driver equipment. This drag racing course places special emphasis on safety, because drag racing engineering involves working at the limit of physics with responsibility.
You will develop competencies in electronics, engine management, and data acquisition applied to drag racing. You will learn to work with programmable ECUs, data logging systems, key sensors (temperature, pressure, lambda, accelerometers, wheel speed, RPM), traction control (when regulations allow), and ignition cut or timing advance strategies. The Master’s in Drag Racing Engineering will enable you to use data to analyze the launch phase, gear changes, RPM drops, wheel slip, and vibrations, generating technical reports that facilitate decision-making between runs.
Who this program is for:
Master’s in Drag Racing Engineering
The Master’s in Drag Racing Engineering is aimed at engineers, technicians, and advanced students of mechanical engineering, automotive, industrial, electronics, or related disciplines who wish to specialize in drag racing engineering and in drag racing competition. It is also ideal for engine builders, high-performance workshop managers, competition mechanics, ECU tuners, dynamometer technicians, and drivers who wish to better understand the technical side of their drag racing vehicles. This drag racing course is designed for people with a technical background who are looking for a structured and advanced training, connected to the reality of projects and teams. Prior experience in automotive, engine mechanics, or competition is recommended, as well as basic handling of computer tools and some familiarity with technical English, since much of the technical documentation in professional drag racing is generated in that language.
SEIUM opts for an extremely specialized and uncommon training program in Spanish: a Master’s in Drag Racing Engineering focused on practice and the reality of drag racing competition. While most programs focus on general motorsport, this drag racing course delves into the specific needs of 1/4-mile projects, professional drag racing events, and high-level preparations. The curriculum has been designed so that you learn what a drag racing engineer actually uses on a daily basis: launch analysis, gear ratio selection, configuration of forced induction engines, interpretation of dyno and track data, advanced safety, and project management. Furthermore, SEIUM structures the Master’s in Drag Racing Engineering to be compatible with professional life, with online sessions, downloadable materials, applied projects, and guidance toward real job opportunities. The goal is for you to leave with the feeling of having experienced the world of professional drag racing up close, with concrete tools to add value from day one.
1.1 History of drag racing and evolution of acceleration competition
1.2 Types of categories: dragsters, funny cars, pro mod, street legal, and others
1.3 Competition distances: 1/4 mile, 1/8 mile, and variants
1.4 Basic sporting regulations and event structure
1.5 Technical regulations and performance control philosophy
1.6 Key elements of drag racing tracks and surface preparation
1.7 General safety in drag racing competition: protocols and responsible parties
1.8 Role of the drag racing engineer within the team
1.9 Workflow in a typical professional drag racing event
1.10 Current trends and future of professional and amateur drag racing
2.1 Fundamentals of longitudinal dynamics in drag racing vehicles
2.2 Weight transfer during launch and initial acceleration phase
2.3 Mass distribution, center of gravity height, and their influence on traction
2.4 Rear suspension geometry, anti-squat, and wheelie control
2.5 Relationship between engine torque, track grip, and wheel slip
2.6 Trajectories and straight-line alignment: importance of set-down
2.7 Suspension adjustments for different power levels and track grip
2.8 Simplified calculation tools to estimate acceleration and times
2.9 Interaction between driver’s driving style and vehicle response
2.10 Traction testing methodology and evaluation of setup changes
3.1 Types of engines used in drag racing and their particularities
3.2 Sizing of internal components for extreme stresses
3.3 Forced induction: turbo, superchargers, and nitrous oxide in drag racing
3.4 Fuel systems and selection of special fuels
3.5 Thermal management and cooling in short but very intense runs
3.6 Ignition and mixture maps oriented to drag racing competition
3.7 Work on the dynamometer: torque and power curves for drag racing
3.8 Reliability strategies and prevention of catastrophic failures
3.9 Monitoring of critical engine parameters on track
3.10 Technical documentation of the engine and recording of configurations
4.1 Typical transmission architectures in professional drag racing
4.2 High-performance automatic transmissions, torque converters, and competition clutches
4.3 Gear ratios and final drive selection according to category
4.4 Torque management through the transmission to avoid loss of traction
4.5 Locked differentials and specific solutions for drag racing
4.6 Diagnosis of transmission problems from data and feel
4.7 Transmission-engine-tire integration in drag racing engineering
4.8 Preventive maintenance and service life of driveline components
4.9 Transmission adjustment strategies for different tracks and conditions
4.10 Recording of transmission configurations and comparative analysis
5.1 Design of tubular chassis for dragsters and modified vehicles
5.2 Roll cages, structural reinforcements, and anchor points
5.3 Torsional stiffness and its influence on consistency of behavior
5.4 Integration of engine and transmission into the drag racing chassis
5.5 Safety regulations: cages, harnesses, seats, and mandatory elements
5.6 Braking systems, parachutes, and emergency stopping devices
5.7 Fire suppression systems and driver protection
5.8 Chassis inspection procedures and pre-track checks
5.9 Interaction between chassis, suspension, and lightweight bodywork
5.10 Safety culture in professional drag racing engineering
6.1 Tires specific to drag racing: slicks, radial, and other technologies
6.2 Characteristics of compounds and behavior at different temperatures
6.3 Influence of pressures and widths on grip and stability
6.4 Burnout and tire warming: technique and purpose
6.5 Reading track grip and adapting setup to surface condition
6.6 Track treatments and their impact on traction
6.7 Tire wear analysis in repeated runs
6.8 Recording of pressures, temperatures, and behavior lap after lap
6.9 Building tire databases by track and conditions
6.10 Tire management plans throughout events and seasons
7.1 Introduction to electronics and data acquisition in drag racing
7.2 Key sensors: RPM, speeds, acceleration, pressure, lambda, and more
7.3 Configuration of programmable ECUs in drag racing engineering
7.4 Analysis of launch data, gear changes, and timeline
7.5 Use of data logging to detect engine, transmission, or traction problems
7.6 Software tools for drag racing run analysis
7.7 Comparison between different runs, configurations, and drivers
7.8 Creation of clear technical reports for the driver and the team
7.9 Management and archiving of data for long-term learning
7.10 Basic automation of analysis tasks and report generation
8.1 Planning a drag racing event: objectives and resources
8.2 Organization of work in the paddock and at the starting line
8.3 Coordination between drag racing engineer, mechanics, and driver
8.4 Quick decisions between runs: what to change and what to keep
8.5 Risk–benefit strategy: how far to push the package
8.6 Management of time, staging lanes, and changing track conditions
8.7 Relationship with race officials, inspections, and technical control
8.8 Post-event evaluation: analysis of results and improvement plans
8.9 Team image, sponsors, and technical communication
8.10 Continuous improvement of processes in professional drag racing teams
Track engineer and technical manager in drag racing teams
9.1 Use of the dynamometer as a drag racing engineering tool
9.2 Advanced interpretation of power and torque graphs
9.3 Acceleration simulation and approximate calculation of run times
9.4 Digital tools for modeling weight, power, and traction
9.5 Validation of setup hypotheses through pre-track simulation
9.6 Integration of dyno data and track data in the drag racing course
9.7 Creation of reusable calculation templates for different projects
9.8 Use of simulation to plan investments and technical improvements
9.9 Basic economic analysis of professional drag racing projects
9.10 Documentation of the development process for clients and sponsors
10.1 Design of a complete drag racing vehicle project
10.2 Integration of engine, transmission, chassis, tires, and electronics
10.3 Planning of bench and track tests to validate the project
10.4 Definition of technical and sporting success metrics
10.5 Preparation of a professional technical dossier for clients or teams
10.6 Presentation and defense of the project before an academic–technical committee
10.7 Strategies to position yourself as a drag racing engineer in the market
10.8 Opportunities in workshops, teams, dynamometers, and consulting
10.9 Adaptation of drag racing engineering to other areas of motorsport
10.10 Closing of the Master’s in Drag Racing Engineering and future development plan
The methodology of the Master’s in Drag Racing Engineering combines structured online training, live sessions, on-demand materials, and a strong practical orientation. Each topic of the drag racing course is accompanied by exercises based on real cases or inspired by authentic situations: analysis of runs, interpretation of dynamometer data, evaluation of setup changes, study of track grip, and review of technical decisions. Technical spreadsheets, data analysis software, simple acceleration simulation utilities, and audiovisual resources (onboard, run recordings, dyno graphs) are used. The “laboratory” of drag racing engineering is conceived as a digital environment where the student works as if they were in the workshop or in the paddock: receiving information, making decisions, documenting results, and preparing next steps. The goal is that this Master’s in Drag Racing Engineering does not remain in theory, but builds real skills as a drag racing engineer capable of adding value in real projects.
Capstone-type projects
Admissions, fees and scholarships
Access to the Master’s in Drag Racing Engineering is focused on technical profiles that can take advantage of the program’s level of rigor. It is recommended to have prior training in engineering, automotive, mechanics, or electronics, or verifiable experience in high-performance workshops, competition teams, or vehicle preparation projects. To formalize admission, a CV, motivation letter, and in some cases a brief interview may be requested to align expectations and confirm that the candidate can successfully follow the technical intensity of the drag racing course. Regarding scholarships and financial aid, special conditions may be considered for students with outstanding academic records, working professionals in the automotive sector, and international candidates interested in drag racing engineering. Installment payment plans are also offered, seeking to facilitate access without sacrificing the academic quality or technical depth that characterize this Master’s in Drag Racing Engineering.
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F. A. Q
Frequently Asked Questions
It is not mandatory to have competed in drag racing, but it is advisable to have a technical background in automotive or engineering. The Master’s in Drag Racing Engineering explains the fundamentals of drag racing competition, but advances quickly toward advanced technical content. If you already have experience in workshops, competition, or vehicle preparation, you will make better use of this drag racing course.
Sí. La ingeniería de drag racing es aplicable en cualquier lugar donde exista competición de aceleración, eventos de 1/4 de milla, track days de aceleración o proyectos de alto rendimiento. Además, muchas de las habilidades adquiridas en el máster en ingeniería de drag racing son transferibles a otras disciplinas del motorsport, como el desarrollo de motores, la calibración en banco, el análisis de datos o la gestión de proyectos de alto rendimiento.
The program is designed to be delivered in online mode, combining live sessions, recorded classes, downloadable materials, and applied projects. This allows the drag racing course to be compatible with professional activity and accessible to students from different countries interested in drag racing engineering.
You will work with technical spreadsheet tools, data analysis software (to interpret RPM, time, speed, and other parameter graphs), and simple acceleration simulation utilities. The goal is that a drag racing engineer trained in this master’s program can easily adapt to both commercial tools and more advanced solutions used by professional teams.
Yes. The projects of the Master’s in Drag Racing Engineering are designed to become part of your professional portfolio. You will be able to show analyses, configurations, traction studies, and complete drag racing vehicle projects to teams, workshops, or clients, demonstrating that this drag racing course has equipped you with real and applicable competencies.