Speed Skating Start Acceleration Training Program

At the 2022 Beijing Winter Olympics, the margin between gold and fourth place in the men's short track 500m was 0.31 seconds — and the majority of that gap was established within the first 15 meters. Biomechanical analysis of World Cup short track starts by de Koning et al. (2019) found that peak power output in the first two pushes off the start line predicts 500m final time with r = 0.87 correlation. The start is not just important; it is the race in the 500m and a pivotal phase in every longer distance as well.

Speed skating start mechanics are trainable. This guide provides the specific dryland and on-ice methods used by national-level programs to develop the explosive push power, optimal force vector, and leg-extension timing that create decisive starts.

Why the Start Decides the Race

Speed skating start mechanics occupy a different biomechanical regime than steady-state skating. During the first 4-5 strides, the skater operates in an almost purely horizontal-force-generating mode — the blade has little forward velocity and cannot generate forward propulsion the way it does during glide phases. Every centimeter of start distance is therefore won by raw mechanical power output, not skating technique in the traditional sense.

Three factors determine start acceleration quality:

• Peak horizontal ground reaction force: The maximum lateral push force that can be directed backward and downward. This is fundamentally a measure of leg power, specifically the ability to generate high force at the hip-extension angles required during the start crouch (85-100° of knee flexion).
• Rate of force development: How quickly maximum push force is reached. Two skaters with identical peak force values can differ by 15-20% in first-stride acceleration if one reaches peak force in 0.08 s and the other takes 0.14 s.
• Push angle: The angle of the resultant ground reaction force vector relative to the ice surface. An optimal push angle (38-45° from vertical) maximizes horizontal impulse. Push angles outside this range waste force vertically and reduce net horizontal acceleration.

Biomechanics of the Speed Skating Start

The speed skating start position — deep crouch, blades angled 90° to intended travel — is biomechanically unusual. Unlike a track athlete's starting blocks, the speed skater cannot pre-load in a forward-facing position. The first push is a pure lateral extension, generating force entirely through hip abduction and extension from a near-parallel-to-ice-surface starting position.

Kinematic studies of elite short track starters (Hinrichs et al., 2017) reveal the following phase structure:

1. Reaction phase (0-0.12 s): Transfer of body weight to push leg. Hip and knee extension begins. Key coaching point: the trunk should begin tilting forward simultaneously with the first push, not as a separate movement afterward.
2. First push (0.12-0.32 s): Maximum force phase. Knee extends from ~95° to ~155°, hip extends from ~30° of flexion to near-full extension. Peak lateral GRF occurs mid-push: 2.8-3.4× body weight in elite starters.
3. Flight phase (0.03-0.06 s): Very brief. The non-push leg is repositioned for the second push during this phase.
4. Second push (0.32-0.58 s): Force peak slightly lower than first push as velocity increases. Coach for full hip extension and blade angle maintenance.

Force Vector and Push Angle Optimization

Push angle is the most commonly correctable technical deficit in developing speed skaters. Beginners and intermediate skaters typically push at 25-32° from vertical (too upright), generating significant vertical force component that contributes nothing to forward acceleration and requires energy to absorb on landing.

To train push angle, use visual and proprioceptive feedback during dryland exercises:

• Cable lateral push: Stand with cable at ankle height, push laterally and downward with intent to match 38-45° angle. Coach athlete to feel hip-extension dominance over quad dominance.
• Lateral banded start simulation: Resistance band attached to hip, step out to skating start position and push laterally against resistance. The band provides continuous feedback on push direction. 4 × 6 each side.
• Video analysis from the front: Record first two strides from front-on camera. Draw angle lines on video to quantify push angle. Most athletes are surprised at how upright their push is when they see it objectively.

Dryland Training Methods for Start Power

Dryland training for start power targets hip extension and abduction power at the joint angles specific to skating starts (85-105° knee flexion), horizontal rate of force development, and lateral impulse generation. Standard vertical jump and squat training, while valuable, does not fully address the lateral and horizontal force-vector requirements.

Primary Dryland Exercises

• Lateral broad jump (skating start simulation): From skating start position, explode laterally for maximum horizontal distance. Land and hold for 2 seconds. This is the closest dryland transfer to on-ice start mechanics. Track maximum distance. 5 × 4 each direction.
• Low-position lateral cable push (RFD focus): Maximum-speed lateral extension from 90° knee flexion against cable resistance. The goal is time-to-peak-force minimization, not maximum force. Use 40-60% of maximum resistance. 5 × 4 each side.
• Hip thrust (horizontal bias): Emphasize full hip extension with a brief pause at peak extension. This targets the hip extensor capacity at the flat positions that skating pushes require. 4 × 6-8, heavy.
• Single-leg squat from skating depth: Full single-leg squat from 90° knee flexion, mimicking the push leg position during first stride. Develop unilateral concentric leg strength at skating-specific joint angles. 3 × 6 each leg, controlled.

On-Ice Start Drill Progressions

Technical start work on ice should proceed from isolated mechanics to full-speed integration. Performing full-speed starts before mechanics are established is the primary reason developing skaters plateau — they groove poor patterns with high-quality neural reinforcement.

1. Walk-through starts (50% speed): Full start mechanics at deliberate pace. Coach focuses on push angle and trunk lean. 8-10 repetitions per session.
2. 5-meter timed starts (near-max effort): From start position to 5m cone. Captures the first two pushes without the confound of glide mechanics. Track time and aim to reduce by 0.02-0.03 s over a 4-week block.
3. 15-meter timed starts (full acceleration): The standard USSPEED and ISU evaluation distance for start quality. Elite short track 15m times: 1.38-1.52 s for men, 1.44-1.60 s for women.
4. Reactive starts: Coach gives go signal at random interval (0-3 s after ready signal). Trains the reaction time component and prevents anticipatory rocking. Time from auditory signal to 15m mark.

Periodization for Short Track and Long Track

Start training emphasis differs between short and long track disciplines. Short track skaters need maximum first-2-stride power and reaction time — the 500m is often decided in the first 3-4 seconds. Long track specialists need a very strong start as well, but the relative importance of the start decreases as distance increases beyond the 500m.

Annual Plan Overview

Testing and Benchmarks

Track start progress with standardized tests every 4 weeks during dryland and pre-competition phases:

• 15m on-ice time (full start): Primary outcome measure. Test on fresh ice, full start, 3 trials, take best time. This is the gold-standard start quality metric in all speed skating programs.
• Lateral broad jump from skating position: Maximum horizontal distance from skating-depth unilateral push. Norms: elite men 2.2-2.6 m; elite women 1.9-2.3 m. Track weekly during dryland power phase.
• Peak power (dryland cable start): Measured with force sensor or PoinT GO during lateral cable push at 40% resistance. Target: >20 W/kg for men, >17 W/kg for women at skating-specific joint angles.
• Bilateral start asymmetry: Measure bilateral lateral broad jump each leg independently. Asymmetry >8% indicates a training priority regardless of absolute values.