Fitness & Athletic Performance

Speed Training: Developing Strength, Power, Mechanics, and Agility

By Alex 7 min read

To significantly increase your speed independently, combine foundational strength, explosive power, refined sprint mechanics, and strategic training protocols, all supported by proper recovery and mobility.

How can I increase my speed myself?

To significantly increase your speed independently, focus on a multi-faceted approach combining foundational strength training, explosive power development, refined sprint mechanics, and strategic sprint training, all supported by adequate recovery and mobility work.

Understanding Speed: The Scientific Basis

Speed, in the context of human locomotion, is a complex athletic quality determined by the interaction of several physiological and biomechanical factors. Primarily, it's a function of stride length (the distance covered in one step) and stride frequency (the number of steps taken per unit of time). To improve speed, you must enhance one or both of these components. This enhancement stems from the ability to apply greater force into the ground in less time (power), move limbs through a full range of motion efficiently (mobility), and coordinate these actions effectively (technique).

Foundational Strength Training for Speed

Developing raw strength is the bedrock upon which speed is built. Stronger muscles can generate more force, which directly translates to greater ground reaction forces during sprinting. Focus on compound, multi-joint movements that target the major muscle groups involved in propulsion.

  • Lower Body Strength:
    • Squats (Back Squat, Front Squat, Goblet Squat): Develops overall leg and glute strength, crucial for powerful hip and knee extension.
    • Deadlifts (Conventional, Romanian Deadlift): Builds posterior chain strength (hamstrings, glutes, lower back), vital for hip extension and injury prevention.
    • Lunges (Forward, Reverse, Walking): Improves unilateral leg strength, balance, and stability.
    • Calf Raises (Standing, Seated): Strengthens the ankle plantarflexors, important for push-off.
  • Core Strength:
    • Planks, Side Planks, Russian Twists, Leg Raises: A strong core provides stability for efficient force transfer from the lower body to the upper body and prevents energy leaks.
  • Upper Body Strength:
    • Rows, Pull-ups, Push-ups: While not directly propulsive, a strong upper body, especially the arms, contributes significantly to powerful arm drive during sprinting.

Aim for progressive overload, gradually increasing weight or resistance over time.

Power Development: Bridging Strength to Speed

Power is the rate at which work is done (Force x Velocity). While strength provides the potential for force, power training teaches the body to apply that force rapidly. Plyometrics and ballistic exercises are key here.

  • Plyometrics: These exercises involve rapid stretching and contracting of muscles to produce an explosive movement.
    • Box Jumps: Develops explosive leg power and teaches efficient landing mechanics. Start with lower boxes and gradually increase height.
    • Broad Jumps: Focuses on horizontal power and teaches full body coordination for distance.
    • Bounds: Exaggerated, long-stride running jumps that emphasize horizontal propulsion and single-leg power.
    • Depth Jumps: Advanced plyometric that uses the stretch-shortening cycle more intensely. Proceed with caution and only after a strong strength base.
    • Pogo Jumps/Ankle Hops: Emphasize ankle stiffness and reactive power.
  • Medicine Ball Throws:
    • Overhead Throws: Develops upper body and core power for arm drive.
    • Rotational Throws: Improves rotational power, beneficial for multi-directional speed and sport-specific movements.
  • Sprinting: Short, maximal effort sprints (e.g., 10-30 meters) are themselves powerful plyometric exercises that train the nervous system for speed.

Ensure adequate rest between sets to maximize power output and minimize fatigue.

Speed Mechanics and Technique Drills

Efficient running mechanics minimize wasted energy and maximize propulsive forces. Focusing on proper form can yield significant speed gains without necessarily increasing strength or power output.

  • Arm Drive: Arms should swing powerfully and rhythmically from the shoulders, with elbows bent at approximately 90 degrees. Hands should travel from hip to cheek. Avoid crossing the midline of the body.
  • Knee Drive: Focus on bringing the knees high and forward, allowing for a longer stride and more powerful ground contact.
  • Posture: Maintain a tall, slightly forward lean from the ankles (not the waist). Keep shoulders relaxed and avoid shrugging.
  • Foot Strike: Aim for a mid-foot strike directly under your center of gravity, allowing for immediate push-off. Avoid overstriding or landing on the heels.

Specific Drills:

  • A-Skips: Marching or skipping motion emphasizing high knees, active foot pull-down, and arm drive.
  • B-Skips: Similar to A-skips but with an added leg extension (kick) before the foot pulls down.
  • High Knees: Rapidly bring knees up towards the chest, focusing on quick ground contact.
  • Butt Kicks: Focus on quickly bringing heels towards the glutes, emphasizing hamstring activation.
  • Wall Drills: Lean against a wall at a 45-degree angle and practice quick knee drives and foot strikes, focusing on proper body angles.

Practice these drills regularly to ingrained proper movement patterns.

Sprint Training Protocols

Directly sprinting at maximal or near-maximal effort is essential for improving speed. Different types of sprints target different aspects of speed.

  • Acceleration Sprints (0-30 meters): Focus on rapidly generating force from a standstill or low speed. Practice starts (3-point, 4-point, standing).
  • Maximal Velocity Sprints (30-60 meters): Once accelerated, focus on maintaining top speed and efficient mechanics.
  • Interval Sprints:
    • Short Sprints (e.g., 10-40m): Perform 6-10 repetitions with full recovery (1:10 to 1:15 work-to-rest ratio) to ensure maximal effort on each rep.
    • Longer Sprints (e.g., 60-100m): Fewer repetitions (3-5) with even longer recovery, focusing on speed endurance.
  • Resisted Sprints: Running with light resistance (e.g., sled pulls, resistance bands) can enhance force production. Use light resistance to avoid altering mechanics.
  • Assisted Sprints: Running with assistance (e.g., downhill running on a slight decline, towing with a band) can help increase stride frequency and expose the nervous system to supra-maximal speeds. Use with caution and only on very gentle slopes.

Always include a thorough dynamic warm-up before sprinting and a cool-down afterward.

Agility and Change of Direction

While linear speed is crucial, many sports require the ability to rapidly change direction. Agility training integrates speed with coordination, balance, and reaction time.

  • Cone Drills:
    • T-Drill: Tests forward, lateral, and backward movement.
    • Pro-Agility Shuttle (5-10-5): Measures ability to change direction quickly over short distances.
    • Box Drill: Involves running around a square of cones, changing direction at each corner.
  • Ladder Drills: Improve foot speed, coordination, and rhythm. Examples include Ickey Shuffle, In-Outs, and Quick Steps.

These drills train the body to decelerate, reorient, and re-accelerate efficiently.

Flexibility, Mobility, and Recovery

Often overlooked, these components are critical for injury prevention, optimal movement mechanics, and sustained performance.

  • Dynamic Warm-ups: Before any workout, perform dynamic stretches (leg swings, arm circles, torso twists) to increase blood flow, warm muscles, and improve range of motion.
  • Static Stretching: After workouts, hold static stretches (hamstring stretches, hip flexor stretches, quad stretches) for 20-30 seconds to improve flexibility and aid recovery.
  • Foam Rolling: Self-myofascial release can help alleviate muscle tightness and improve tissue quality. Focus on hamstrings, quads, glutes, and calves.
  • Adequate Sleep: Essential for muscle repair, hormonal balance, and nervous system recovery. Aim for 7-9 hours per night.
  • Nutrition: Fuel your body with a balanced diet rich in protein for muscle repair, carbohydrates for energy, and healthy fats for overall health. Stay well-hydrated.

Programming Considerations and Progressive Overload

To increase speed effectively and safely, structure your training logically.

  • Periodization: Divide your training into phases:
    • Off-Season/General Preparation: Focus on building a strong strength and aerobic base.
    • Pre-Season/Specific Preparation: Increase intensity, incorporate more power and sprint work, refine technique.
    • In-Season/Competition: Maintain speed and power with lower volume, focus on recovery.
  • Frequency: Aim for 2-3 dedicated speed/power sessions per week, allowing for adequate recovery between sessions. Strength training can be integrated or done on separate days.
  • Progressive Overload: Gradually increase the intensity, volume, or complexity of your training over time. This could mean heavier weights, more reps/sets, faster sprints, or more challenging drills.
  • Listen to Your Body: Avoid overtraining. Fatigue, persistent soreness, or a decrease in performance are signs you may need more rest.

By consistently applying these principles and listening to your body, you can significantly enhance your speed and athletic performance independently.

Key Takeaways

  • Speed improvement relies on enhancing stride length and frequency through a combination of strength, power, mobility, and refined technique.
  • Foundational strength training, particularly for the lower body and core, builds the raw capacity for greater ground force during sprinting.
  • Power development, achieved through plyometrics and ballistic exercises, teaches the body to apply generated force rapidly and explosively.
  • Efficient sprint mechanics (arm drive, knee drive, posture, foot strike) are crucial for minimizing wasted energy and maximizing propulsive forces.
  • Direct sprint training, agility drills, and adequate recovery (sleep, nutrition, flexibility) are essential for neurological adaptation, injury prevention, and sustained performance.

Frequently Asked Questions

What are the fundamental components of speed?

Speed is primarily determined by stride length and stride frequency, enhanced by the ability to apply greater force into the ground rapidly, efficient movement range, and coordinated actions.

What types of strength exercises are most beneficial for increasing speed?

Focus on compound, multi-joint movements like squats, deadlifts, lunges for lower body, planks for core, and rows/pull-ups for upper body, all crucial for force generation and stability.

How do I develop explosive power for speed?

Develop explosive power through plyometrics like box jumps, broad jumps, bounds, and medicine ball throws, which train the body to apply force rapidly.

What are key aspects of proper sprint mechanics?

Key mechanics include powerful arm drive (hip to cheek), high knee drive, a tall posture with a slight forward lean, and a mid-foot strike directly under the center of gravity.

How often should I train for speed to see results?

Aim for 2-3 dedicated speed/power sessions per week, allowing adequate recovery between sessions, and gradually increase intensity, volume, or complexity over time.