Running Economy Training: Same Cardio, Faster Pace

Coach’s Opening: The Race That Made Me Take “Economy” Seriously

In fifteen years of coaching, one scene has stayed with me. That year, I had two age-group athletes around 51-52 years old—let’s call them A-Hong and Old Chen. They joined the team at the same time, trained through the same training cycles, and their lab-measured VO2max was almost identical, both falling in the 52-54 ml/kg/min range. Their aerobic engines were essentially twins. But every time they raced the Tianzhong Marathon or the Wanchin Shih Marathon, A-Hong’s full marathon time was always 8 to 12 minutes faster than Old Chen’s.

Most people’s first reaction is, “A-Hong pushes harder and tolerates more suffering.” But I stared at their training data for an entire season and found the truth wasn’t so dramatic—at the same pace, Old Chen’s heart rate was always 8 to 12 bpm higher than A-Hong’s, and his oxygen consumption was noticeably higher too. In other words, Old Chen had to use more oxygen and burn more energy to run at the same speed as A-Hong. The engines were the same size, but Old Chen’s car guzzled more fuel.

Sports science has a name for this degree of “fuel consumption”: Running Economy (RE). I often tell my athletes that if VO2max determines the “upper limit of your engine’s displacement,” then running economy determines “how far you can go on the same tank of gas.” And the good news is—displacement is hard to increase at a certain age, but fuel efficiency can be significantly improved through training. This article is about taking “the same cardio, faster pace” from science to training plans, explained clearly in one go.

What Is Running Economy? Let’s Define It in Plain Terms

The Most Practical Plain-Language Definition

Running economy refers to the amount of energy or oxygen your body consumes at a given submaximal pace. The less you consume, the better your economy. Labs typically quantify it using “oxygen consumption (VO2) at a certain speed”—the lower the number, the more efficient you are.

Here’s a real-world analogy: two cars both hit 100 km/h on the highway. One uses 6 liters per 100 km, the other uses 9 liters. The horsepower may be identical, but the fuel-efficient car goes farther and lasts longer. Runners are the same—someone with good RE has a lower heart rate at the same pace, slower lactate accumulation, and burns glycogen more sparingly, allowing them to last longer or run faster at the same level of effort.

Why Triathletes Should Care Even More

RE is already important for pure runners, but it’s even more critical for triathletes, for a simple reason: your run starts after swimming and cycling have already drained your legs. When you dismount at T2 with leaden legs and depleted glycogen stores, an inefficient running form becomes a disaster magnified. A triathlete with good RE can hold pace at a lower metabolic cost in the final 10 km of an Olympic-distance race or the final 21 km of a 113 half-ironman—this is often the difference between podium and hitting the wall in your age group.

RE’s Relationship with VO2max and Lactate Threshold

I like to explain endurance performance using a “three-legged stool”:

• VO2max: The engine’s maximum displacement, determining your ceiling.
• Lactate Threshold (LT): The percentage of VO2 you can sustain for a long time, determining “how much of that displacement you can actually use.”
• Running Economy (RE): Fuel consumption at the same speed, determining “how much speed those oxygen units can buy you.”

Multiply all three together, and you get true race performance. Many middle-aged age-group runners who have trained for three to five years and hit their VO2max ceiling often find their biggest room for improvement isn’t in the first two legs, but the third—RE is almost the last and most fertile field of improvement for experienced runners.

I often use one image to remind my athletes: two runners with the same engine and similar usable displacement—what ultimately separates them is who converts every drop of fuel into forward speed, and who leaks fuel into vertical bouncing, braking, and upper-body tension—the invisible places. That’s why people who train just as hard can have wildly different results—the difference often isn’t effort, but “efficiency.”

What Determines Running Economy: Lifting the Hood

Running economy isn’t a single factor; it’s the sum of a whole set of biomechanical and physiological characteristics. I divide the factors affecting RE into three categories to help athletes understand where they should train.

1. Muscle-Tendon “Spring” Characteristics (Most Critical and Most Trainable)

The human leg is actually a sophisticated spring system. With every footstrike, your Achilles tendon and calf tendons stretch like a spring, storing elastic potential energy, then “spring” that energy back as you push off the ground. This is called elastic energy return.

There’s a key term here: tendon stiffness. A moderately high-stiffness tendon is like a bowstring with just the right tension—minimal deformation on landing, quick rebound, and little energy loss; a low-stiffness tendon is like a loose rubber band, collapsing softly on landing and dissipating energy as heat. This is also why strength training and plyometrics can significantly improve RE—they’re precisely training the stiffness and rebound efficiency of this spring system.

2. Biomechanics and Running Form

• Vertical oscillation: How high you bounce with each step. Running is about moving forward, not upward—the more you bounce, the more energy is wasted fighting gravity.
• Ground Contact Time (GCT): How long your foot stays on the ground. Elite runners typically have short, crisp GCT.
• Cadence: A low cadence often comes with overstriding, landing the foot ahead of your center of mass and creating a “braking” effect—hard on the knees and wasteful of energy.
• Footstrike pattern and center of mass position: Land your foot as close to directly beneath your center of mass as possible to reduce braking force on every step.

3. Physiology and Body Composition

• Muscle fiber composition: Proportion of slow-twitch fibers, mitochondrial density, and capillary density.
• Body weight and composition: RE is often calculated “per kilogram of body weight,” so excess non-functional weight directly increases fuel consumption.
• Cardiovascular and metabolic adaptations: Whether your long-term aerobic base is solid enough.

The table below helps you see clearly “which factors can be trained and how quickly results appear”:

Factor	Trainability	Speed of Results	Primary Training Methods
Tendon stiffness / elastic return	High	Medium (6-12 weeks)	Heavy strength training, plyometrics
Cadence and overstriding	High	Fast (2-6 weeks)	Cadence metronome, technique drills
Vertical oscillation	Medium	Medium	Plyometrics, core work, technique
Ground contact time	Medium	Medium	Plyometrics, fast cadence
Aerobic base / mitochondria	High	Slow (months)	High volume Easy aerobic mileage
Body composition	Medium	Slow	Training + nutrition management
VO2max ceiling	Low (for experienced)	Slow / limited	High-intensity intervals

Once you understand this table, you’ll see why my prescription for experienced athletes is often “keep the mileage going, but increase the dosage of strength, plyometrics, and technique work.”

What Science Says: Do Strength and Plyometric Training Actually Work?

I’m being especially careful with this section—only sharing research conclusions I’ve actually verified and can cite, without exaggeration.

According to a systematic review and meta-analysis comparing the effects of “heavy resistance training” versus “plyometric training” on running economy (published in a Sports Medicine-related journal, indexed in PubMed), which compiled multiple controlled trials: heavy resistance training has a slightly larger effect size for improving running economy than plyometric training alone; these strength intervention programs typically lasted 6 to 24 weeks, with 1 to 4 sessions per week.

Another line of evidence comes from a meta-analysis on plyometric jump training: plyometric jump training alone has a small effect on RE, but when plyometrics are combined with resistance training, the effect on RE is large and positive; moreover, improvements were more pronounced when training accumulated more than roughly 15 total sessions, exceeded 7 weeks, and included at least 2 days per week. The consensus across multiple reviews is that integrating strength and plyometric training into an endurance program is an effective strategy for improving RE, with improvements generally falling within a range of a few percentage points (differences vary considerably across studies and populations—I’m deliberately giving a range rather than a falsely precise single number).

Translating the research into coaching language, it comes down to one sentence: Don’t just do “gym vacations” with light weights and high reps—dare to handle weights near your maximal strength, combine strength with jumping, and train consistently for at least two months before you reap the RE dividends. (Research links cited in this section are listed in the references at the end.)

Why Do Some People “Train Their Cardio Until They’re Blue in the Face” With No Results?

The type of athlete I encounter most often as a coach is the middle-generation runner who does interval runs three times a week, pushes themselves to the point of vomiting, has long since maxed out their VO2max at their personal ceiling, yet their performance has been stuck in place for two to three years. Their problem is almost never their cardiovascular system—it’s that their RE has hit a ceiling that hasn’t been addressed.

The logic isn’t hard to grasp: VO2max has a physiological limit, and especially after age 35, the room to squeeze out more is very limited. No matter how much more interval work you add, the engine’s displacement is what it is. But RE is different—it involves tendon stiffness, neural recruitment, and running form habits—these “software-layer” things. They don’t automatically improve just because you run more 400-meter repeats; they require targeted strength and technical stimuli to adapt.

So when athletes complain to me, “I train my cardio and nothing works,” I usually ask them in return: When was the last time you did a serious heavy back squat? Do you know your cadence and vertical oscillation? Eight out of ten can’t answer. That’s where the room for improvement lies.

Three Practical Pathways: How to Structure Strength, Plyometrics, and Technique

This is the core of the article. I divide the practical methods for improving RE into three pathways, and I’ll give you training templates you can copy directly. The three pathways aren’t a pick-one-of-three situation—they’re like three strands twisted together into a rope.

Pathway One: Heavy Strength Training—Upgrade the Spring’s Steel

The goal isn’t to make your legs bigger or add body weight (that would actually hurt RE), but to improve maximal strength and neural recruitment efficiency, so you can complete each push-off with fewer muscle fibers and less effort.

Key principles:

• Dare to use heavy weights, low reps: Use a load in the 3-6 RM to 6-8 RM range for core lifts, 3-5 sets, with full rest of 2-3 minutes between sets. The focus is stimulating the nervous system and tendons, not training muscles to failure and swelling.
• Choose multi-joint, lower-body-dominant movements: Squats, deadlifts, Romanian deadlifts, split squats, single-leg deadlifts, calf raises.
• 2 sessions per week, scheduled on easy days or days spaced apart from key running sessions, so strength work doesn’t eat the legs out from under your quality runs.

Here’s a strength-day template I often give to age-group triathletes who “have a foundation and want to improve RE”:

Exercise	Sets × Reps	Intensity Cue	Purpose
Barbell Back Squat	4 × 5	Heavy load, full control throughout the movement	Lower-body maximal strength
Romanian Deadlift	3 × 6	Feel tension in the posterior chain	Posterior chain of glutes and hamstrings, hip hinge
Bulgarian Split Squat	3 × 8 (per side)	Single-leg stability	Single-leg strength, balanced running form
Standing Calf Raise (weighted)	4 × 8	Slow lower, fast rise	Calf and Achilles tendon stiffness
Core (Plank / Dead Bug)	3 sets	Anti-rotation, anti-extension	Trunk stiffness, force transmission

Beginners, take note: spend the first 4-6 weeks getting the movement patterns and mobility right, add weight gradually, and don’t rush into heavy loads and get injured.

Pathway Two: Plyometric Training—Teach the Spring to “Rebound Fast”

If strength training is upgrading the spring’s steel, plyometric training is teaching that spring to store energy quickly and release it quickly within an extremely short ground-contact time. The core concept of plyometrics is the Stretch-Shortening Cycle (SSC)—the muscle is rapidly lengthened, then immediately contracts in the opposite direction, squeezing out elastic energy.

Key principles:

• Quality over quantity: Every jump should have “clean landings, short ground contact, and quick rebound.” If the movement falls apart or your footwork gets sloppy, stop—better to do fewer reps than to do bad ones.
• Progress gradually, volume before intensity: Progress from low-impact (jump rope, fast feet) to medium-impact (bounding, single-leg hops), and only touch high-impact (box drop rebounds, depth jumps) once you have a foundation.
• Control total ground contacts: In the early stages, 60-100 contacts per session is enough, to avoid overloading the calves and Achilles tendon (this is also the most common place for injuries to develop).
• 1-2 sessions per week, warm up thoroughly before jumping, and pay attention to calf soreness the day after.

A sample progressive plyometric template (aligned with the phases below):

Phase	Weeks	Representative Exercises	Recommended Volume
Beginner・Low Impact	Weeks 1-3	Jump rope, A-skips, fast feet	60-80 contacts
Foundation・Medium Impact	Weeks 4-7	Pogo jumps, bounding, continuous single-leg hops	80-100 contacts
Advanced・High Impact	Week 8 onward	Box jumps, depth jumps, continuous hurdle jumps	100-120 contacts

Taiwan’s summers are hot and humid, so I specifically remind my athletes: schedule plyometrics in the cooler morning or evening hours, and choose a resilient PU track or grass—avoid jumping on asphalt at noon, to reduce the risk of joint and tendon injuries under heat and fatigue.

Pathway Three: Technique and Running Form—Put the Good Spring to Use in the Right Place

No matter how good the spring is, it’s wasted if it’s used in the wrong direction. The technique pathway addresses “don’t let energy leak where it shouldn’t leak.”

The points I correct most often, with the highest return on investment:

• Cadence: Overstriding is the most common energy leak for age-group runners. Most people do best with a cadence between 170-185 steps per minute (adjusted by height and pace). Use a metronome or watch vibration alerts to bump your cadence up by 5% first—you’ll often immediately feel “lighter, no braking.”
• Landing point close to your center of mass: Imagine your foot landing directly beneath your body, not reaching out and stepping in front of you.
• Relax your upper body: Drop your shoulders, swing your arms forward and back (not side to side), and don’t grip your hands into fists. Upper-body tension is an invisible energy hog.
• Natural forward lean to initiate: Lean from the ankles, with a slight overall forward tilt of the body, letting gravity help you move forward instead of using your thighs to drag your body forward.

The beauty of technique training is that it shows results quickly and carries low risk—you can usually feel a difference within 2-6 weeks, making it a great appetizer for the entire RE training plan.

How to Fit All Three Pathways into One Week?

The question I get most often from athletes is: “Coach, I work during the week and have to manage swimming and cycling—where does all this fit?” My answer is—you don’t need to do everything every day. Allocate by the week, and alternate hard sessions with quality sessions. Here’s an integrated weekly framework for an age-group triathlete who can train 5-6 days a week:

Day	Main Session	Additional RE Elements
Mon	Swim technique + Easy run	4-6 strides before the run (technique)
Tue	Bike intervals	Strength Day A (heavy lower body)
Wed	Run tempo	—
Thu	Swim + Easy ride	Plyometrics (low-moderate impact)
Fri	Rest or active recovery	—
Sat	Long run (LSD)	Core after the run
Sun	Long bike	Strength Day B (single-leg + calf raises)

A few scheduling principles I always emphasize:

1. Avoid placing strength and plyometrics the day before key quality run sessions (intervals, tempo) to prevent fatigue from contaminating them.
2. The 8-12 weeks before race season are the golden window for RE training; the closer you get to race day, strength can be maintained but reduced in frequency, and high-impact plyometric movements should be tapered early. In the final 1-2 weeks, switch to light maintenance only.
3. Strides are the most underrated all-purpose tool: 4-6 x 15-20 second accelerations after a run build both technique and elasticity at very low fatigue cost. I have nearly every athlete do them.

A 12-Week RE Periodized Plan (For Advanced Age-Group Athletes)

A weekly framework alone isn’t enough—many athletes need to see “how the whole block progresses” to feel confident. The 12-week periodization below is the skeleton I actually use in the pre-season preparation phase, linking the three pathways with the logic of “build the base first, then add stiffness, then shift to specificity.” You can count backward from your own race date.

Week	Phase Theme	Strength Focus	Plyometric Focus	Technique/Run Focus
1-3	Anatomical Adaptation	Moderate weight, dial in movement patterns (8-10 RM)	Low impact: jump rope, A-skips	Cadence calibration, strides
4-6	Max Strength	Heavy weight, low reps (4-6 RM)	Moderate impact: bounding, single-leg hops	Landing point under center of mass, tempo
7-9	Strength Conversion	Heavy weight maintenance + explosive speed (e.g., jump squats)	Moderate-high impact: box jumps, hurdle hops	Brick run form specificity, intervals
10-11	Specificity	Strength reduced to 1x/week maintenance	High-impact volume halved, quality preserved	Race pace simulation, maintaining form under fatigue
12	Pre-race Taper	Light maintenance only, no training to failure	Drop high-impact, keep only strides	Short and fast, maintain neural activation

The soul of this table is “build stiffness in the middle phase, shift to specificity in the late phase, and only maintain without creating fatigue before race day.” Too many people carry heavy weights and high-impact work all the way to the week before the race, then show up with heavy legs that cancel out all the RE they worked so hard to build—that’s the mistake I most want you to avoid.

Body Composition and Eating Out: The Hidden Battleground for Taiwanese Age-Group Athletes

RE is almost always calculated as oxygen uptake per kilogram of body weight, which means excess non-functional body weight directly and mercilessly raises your fuel cost. This isn’t about chasing extreme leanness—it’s a reminder that managing body composition within a reasonable, healthy range is the most overlooked piece of improving RE.

Taiwanese age-group athletes face a very real challenge—the eating-out environment. Bentos, thick soups with noodles, and hand-shaken drinks are everywhere. With high training volume, it’s easy to “eat whatever you want because you trained,” and weight goes up instead of down. The principles I give athletes are simple:

• Spend your carbs around training: Fuel up before and after high-intensity sessions so carbs support training and recovery rather than being stored indiscriminately.
• Ensure one palm-sized portion of protein at every meal: No matter how busy eating out gets, grab chicken breast, tofu, fish, or eggs first to secure the raw materials for tendon and muscle repair.
• Treat hand-shaken drinks as a reward, not a daily habit: Not total abstinence, but don’t let them become an invisible daily calorie source.
• Don’t aggressively cut weight before race season: Severe dieting simultaneously costs muscle, impairs recovery, and drags down training quality—not worth it. RE body weight management is a marathon, not a sprint.

Remember, body composition is the piece of the RE puzzle that “takes time to show results but is steady.” Don’t expect it to change anything in two weeks, but if you ignore it long-term, your efforts on the other three pathways will be diluted.

Common Mistakes and Fixes: Pitfalls I’ve Seen Too Many Times

Mistake 1: Training Strength Like a Bodybuilder

Many runners walk into the gym and do three sets of twelve, chasing the pump and soreness. This does little for RE and can easily add non-functional muscle mass. Fix: Use heavy weight and low reps on core lifts, targeting neural and tendon stimulation rather than failure.

Mistake 2: Doing Too Much Plyometrics, Too Soon

The Achilles tendon and calves are where plyometric injuries most often happen. I’ve seen athletes show up and immediately hammer depth jumps, only to pull a calf and sit out for three weeks. Fix: Start with low impact, strictly control ground contact volume, and stop the moment movement quality drops.

Mistake 3: Obsessing Over Pace, Ignoring Cadence and Stride Length

Athletes with overly long strides try desperately to run faster, but every step is a brake, and their knees pay the price. Fix: Use a metronome to raise cadence by 5% first—pace will follow naturally, and knee load drops too.

Mistake 4: Expecting Results in Two Weeks

Tendon stiffness adaptation is measured in weeks or even months. Fix: Give it at least 8 weeks—ideally the entire pre-season preparation block. Don’t quit after two weeks just because you don’t feel anything yet.

Mistake 5: Neglecting Recovery and Sleep

Tendon and neural adaptations happen during recovery. Taiwanese age-group athletes generally don’t sleep enough and often eat in a rush when eating out, so recovery quality suffers and even the best plan gets discounted. Fix: Treat sleep as a formal training session, and hit your protein and carbs after training.

Mistake 6: Picking Only One of the Three Pathways

Some people obsess over strength only, some are addicted to plyometrics only, and some fixate solely on run form. A single pathway helps, of course, but both research and my practical experience point to—combining strength with plyometrics, plus technique corrections, yields far greater results than going solo. Three strands twisted together are what make a strong rope. Fix: At minimum, keep strength and plyometrics running in parallel, and let technique run through everything, fine-tuned daily.

Actionable Advice for Athletes at Different Levels

First-Timers / Beginners Just Starting to Take RE Seriously

Stay away from high-impact plyometrics for now. Your first priority is technique and foundational strength:

1. Do 4-6 strides after every run and make it a habit.
2. Use your watch or a metronome to observe and fine-tune cadence.
3. Do basic strength 2x/week—first dial in the movement patterns of squats, deadlifts, and split squats, then add weight gradually.
4. For plyometrics, stick to the lowest-impact options: jump rope and A-skips.

Advanced Age-Group Athletes with Several Finishes, Looking to Break Through

You can fully integrate all three pathways:

1. In the 8-12 weeks before race season, move strength into the heavy-weight, low-rep phase.
2. Progress plyometrics steadily to moderate-high impact while controlling ground contact volume.
3. Target your specific energy leaks in technique (usually vertical oscillation or overstriding).
4. Use wearable devices to track changes in ground contact time, vertical oscillation, and cadence as progress indicators.

Veterans / Goal-Oriented Athletes (e.g., chasing age-group podiums, setting PBs)

Your VO2max is probably near its ceiling—RE is your last gold mine:

1. Treat strength and plyometrics as a long-term, year-round allocation, managing volume and intensity in cycles.
2. Taper precisely before race day: pull high-impact movements early, reduce strength frequency to maintenance, and avoid showing up with fatigued legs.
3. Triathlon specificity: in brick sessions where you run after cycling, deliberately hold good form and cadence, turning RE into an instinct that holds even on empty legs.
4. Use local Taiwanese races as training grounds: for courses like Wan Jin Shi, Tanaka Marathon, or Taipei Marathon, simulate the route and climate in advance to calibrate how your RE holds up under fatigue and humid heat.

The 8 Questions Students Ask Me Most (FAQ)

Q1: Will lifting heavy weights make me heavier and slower?

This is the most common fear. The answer is: training with low reps, heavy weights, and an emphasis on neural and tendon stimulation produces limited muscle hypertrophy, and most of what you gain is “usable” strength, not bulk that weighs you down. What actually makes you slower is ineffective muscle mass built from light weights and high reps, combined with uncontrolled diet. If the direction is right, you’ll become lighter and more agile, not heavier and clumsier.

Q2: I have bad knees. Can I still do plyometrics?

Plyometrics isn’t all-or-nothing. Start with the lowest-impact, double-leg, small-amplitude movements (jump rope, small hops in place), strictly control the number of ground contacts, and make sure your landing technique is correct (land “soft,” don’t let your knees cave inward). If you have a clear history of knee joint injury, be sure to have a physical therapist evaluate you first. This is exactly what the compliance reminder at the end of the article is about.

Q3: I don’t have a gym. Can I train RE at home?

Yes. The technical components (quick footwork, cadence) require no equipment at all; plyometrics can be done at home with body weight; and although strength work is somewhat compromised without a barbell, single-leg squats, single-leg deadlifts, weighted calf raises, and rear-foot-elevated split squats can still provide solid stimulus with a pair of dumbbells or a backpack filled with water. Equipment is a bonus, not a prerequisite.

Q4: Do mileage and RE training conflict? How do I prioritize when time is limited?

They don’t conflict, but you need to allocate smartly. Aerobic mileage is the foundation of RE and can’t be removed, but if you’re already running high mileage and stuck in a plateau, swapping one or two “mindless mileage” sessions for strength or plyometrics is often more effective than running another 20 km. When time is limited, pick the highest ROI options: quick footwork after runs (nearly zero extra time) plus 2 strength sessions per week.

Q5: How long until I see RE improvements?

Technical aspects (cadence, relaxation) can be felt within 2-6 weeks; improvements in RE from tendon stiffness and strength typically take 6-12 weeks to become obvious. So don’t give up after two weeks of no results—this is a patience game.

Q6: How do I know if my RE is improving? What if I don’t have a lab?

The most practical home metric is heart rate at the same pace: pick a familiar route and pace, and every few weeks run it under similar temperature and conditions to see if your heart rate gradually drops. Combine this with your watch’s ground contact time, vertical oscillation, and cadence trends to get the big picture. Don’t obsess over a single reading—look at the trend.

Q7: As a triathlete training run RE, what special considerations are there?

The key is “RE under fatigue.” Your run always comes after swimming and cycling, so you must train bricks—run immediately after getting off the bike, deliberately maintaining good cadence and form with heavy legs. Turning good RE into an instinct that “doesn’t fall apart when tired” is the true value of triathlon-specific training.

Q8: Does Taiwan’s hot, humid weather affect RE training?

Yes. In high heat and humidity, heart rate at the same pace is elevated and perceived effort feels heavier. In this case, don’t fixate on heart rate numbers (they’ll be distorted); use perceived effort and pace instead. Schedule plyometrics and heavy lifting sessions in the cooler early morning or evening hours, stay on top of fluids and electrolytes, and don’t push hard at noon. Safety first.

A Realistic Closing Case Study

Back to Old Chen from the beginning. That season I didn’t touch his aerobic mileage (his VO2max was already sufficient). I only added three ingredients: heavy lower-body strength twice a week, progressive plyometrics once or twice a week, and quick footwork with cadence tweaks after every run.

Three months later, retesting showed his heart rate at the same pace had dropped by about 6-8 bpm, and both ground contact time and vertical oscillation had clearly decreased. At the next marathon, he broke the PB that had eluded him for two years. I still remember the look on his face as he crossed the finish line—not the look of someone collapsed from exhaustion, but the relief of “so this is what it feels like to run this efficiently.”

This is the most fascinating part of running economy training: it’s not about making your engine bigger, but teaching you to drive the engine you already have more intelligently, more efficiently, and farther. The same cardiovascular capacity, a faster pace—this isn’t just a slogan; it’s a result that can be trained for.

May every step you take bounce beautifully, and may you run faster and more effortlessly with the same engine at your next race.

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This article is educational content and does not replace individual assessment by a physician, physical therapist, or nutritionist.

References

• Heavy Resistance Training Versus Plyometric Training for Improving Running Economy and Running Time Trial Performance: A Systematic Review and Meta-analysis (PubMed): https://pubmed.ncbi.nlm.nih.gov/36370207/
• Heavy Resistance Training Versus Plyometric Training for Improving Running Economy and Running Time Trial Performance (PMC full text): https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9653533/
• Effect of Strength Training Programs in Middle- and Long-Distance Runners’ Economy at Different Running Speeds: A Systematic Review with Meta-analysis (PMC): https://www.ncbi.nlm.nih.gov/pmc/articles/PMC11052887/
• The Effect of Strength Training Methods on Middle-Distance and Long-Distance Runners’ Athletic Performance: A Systematic Review with Meta-analysis (Sports Medicine, Springer): https://link.springer.com/article/10.1007/s40279-024-02018-z

Related Reading

• Exercise Economy: Who Saves More Energy with the Same Fitness—The Science of Efficiency in Running, Cycling, and Swimming and How to Improve It
• Running Economy in Road Running: How to Lower Oxygen Cost at the Same Speed
• Running Economy: Why People with the Same VO2max Perform So Differently
• Running Economy: The Secret to Running Faster with Less Energy