Lots of cyclists want the benefits of heavy resistance training but very often don’t have the time, equipment, or gym access to make it happen consistently. When you’re already trying to fit quality riding into a busy schedule, strength training can quickly become the first thing dropped.

But what if you could still improve force production, muscle recruitment, bone health, and injury resilience without heavy equipment?
That’s where plyometrics can be incredibly useful.
Before going any further, it’s important to make one thing clear: plyometrics are not a complete replacement for heavy resistance training. Heavy lifting still has unique benefits for maximal strength development and tissue robustness. But if lack of equipment is currently stopping you from doing any meaningful strength work, plyometrics can bridge a large part of the gap and provide a highly effective training stimulus.
We’ve written another blog on why cyclists should strength train, but here are the major takeaways:
- Improved neuromuscular recruitment can increase how much power you push through the pedals.
- Increasing maximal force capacity makes submaximal efforts feel easier, improving efficiency.
- Better bone health is critical for cyclists, who are at greater risk of low bone mineral density due to the non-weight-bearing nature of the sport.
- Injury reduction matters for every rider. Strength training improves the body’s ability to tolerate training load and repeated stress.
Research consistently supports these benefits. A systematic review published in the International Journal of Sports Physiology and Performance found that strength training can significantly improve cycling performance, sprint power, and efficiency in trained cyclists. International Journal of Sports Physiology and Performance review
What Are Plyometrics?

Plyometrics are explosive movements designed to develop power, speed, stiffness, and force production. They work through something called the stretch-shortening cycle — a rapid eccentric muscle action immediately followed by a powerful concentric contraction.
Common examples include:
- Squat jumps
- Box jumps
- Bounds
- Split jumps
- Pogos
During these movements, muscles and tendons store elastic energy before rapidly releasing it. Think of it like compressing and releasing a spring.
How Can Plyometrics Improve Maximal Power?

During the stretch-shortening cycle, the muscle is first loaded in the eccentric phase before rapidly reversing into a concentric contraction. This allows the body to produce significantly more force compared to an isolated concentric action alone.
Repeated exposure to explosive movements improves the nervous system’s ability to recruit high-threshold motor units quickly and efficiently. In simple terms, your body becomes better at producing force fast.
For cyclists, that can translate into:
- Higher sprint power
- Better acceleration
- Improved repeatability of hard efforts
- Greater force production during short climbs and attacks
Research has shown plyometric training can significantly improve power output and neuromuscular performance in endurance athletes. Journal of Strength and Conditioning Research study on plyometric training
Can Plyometrics Improve Pedalling Efficiency?
Potentially, yes.
Plyometrics place very high mechanical demands on muscles and tendons, creating large levels of muscle activation. Over time, this can improve intermuscular and intramuscular coordination — essentially improving how effectively muscles work together and how many fibres can contract simultaneously.
When maximal force capacity increases, submaximal efforts become a smaller percentage of your overall capability. That means threshold efforts and sustained power outputs can feel more economical.
There’s also evidence that plyometrics improve tendon stiffness. A stiffer tendon can transfer force more efficiently, which may improve force transmission through the pedal stroke while reducing energy loss.
A review published in Sports Medicine highlighted that plyometric training can improve tendon mechanical properties and neuromuscular efficiency. Sports Medicine review on plyometric training adaptations
Bone Health and Injury Reduction
This is one area that often gets overlooked in cycling.
Cycling is excellent for cardiovascular fitness but relatively poor for bone loading because it’s non-weight-bearing. That means cyclists can be at increased risk of low bone mineral density and osteoporosis, particularly with high training volumes and low energy availability.
High-impact plyometric work provides a strong osteogenic stimulus, meaning it encourages bone remodelling and mineral deposition.
Research from the Journal of Bone and Mineral Research has shown that impact-based exercise can positively influence bone density. Journal of Bone and Mineral Research study on impact exercise and bone density
From an injury perspective, plyometrics can also improve:
- Tendon capacity
- Landing mechanics
- Force absorption
- Lower limb stiffness
- Joint control
All of which may help reduce injury risk when training load increases.
How Can You Do Them at Home?
Here are my top three plyometric exercises you can do at home with no equipment.
1. Max-Effort Squat Jump
The focus: Maximum vertical power and rapid motor unit recruitment.
Start in a quarter squat, explode vertically as hard as possible, and focus on intent rather than fatigue. Full recovery between reps is important.
2. Alternating Split Jumps
The focus: Elasticity, coordination, and rate of force development.
These are great for unilateral force production and improving how quickly you can produce force through each leg independently.
3. Split Squat Drops
The focus: Landing mechanics and eccentric force absorption.
This is a more advanced progression that helps develop tendon stiffness and braking capacity.
How Should You Program Them?
If you’re programming plyometrics yourself, start cautiously.
These exercises create very high forces despite requiring little equipment, so progression matters — especially if you have a history of tendon pain, bone stress injuries, or previous lower limb injuries.
A simple way to monitor load is by counting contacts (jumps and landings).
Beginner
- 15–20 contacts per session
- 1–2 sessions per week
Intermediate
- 40–60 contacts per session
- 2 sessions per week
Advanced
- 80–100+ contacts per session
- Higher intensity variations
Quality matters far more than fatigue. Once jump height, stiffness, or landing quality drops off, the session should usually end.
For cyclists, plyometrics work best when integrated alongside structured riding rather than replacing it. Even short 10–20 minute sessions can be enough to create meaningful adaptations when performed consistently.
Conclusion
Heavy resistance training is still the gold standard for maximal strength development, but that doesn’t mean you can’t make meaningful progress without a gym.
Plyometrics offer cyclists a practical way to improve explosive power, neuromuscular recruitment, tendon stiffness, bone health, and injury resilience with minimal equipment and time commitment.
If access to heavy weights is currently the barrier stopping you from strength training consistently, plyometrics can be an extremely effective alternative — especially when programmed progressively and performed with quality.
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