Dan Bailey’s “2007” Retest: What a Sub‑10 Finish at 42 Reveals About CrossFit, Aging, and Training for Longevity

Table of Contents

1. Key Highlights
2. Introduction
3. The “2007” Workout: Structure, Demands, and What It Tests
4. How Bailey’s 2026 Retest Compared to His 2013 Games Performance
5. Variables That Skew Benchmark Comparisons — Why Retests Aren’t Always Apples‑to‑Apples
6. What Bailey’s Sub‑10 Finish Says About Aging Physiology and Training
7. Equipment and Technique: Small Differences That Yield Big Time Gains
8. Preparing to Retest a Classic Benchmark: A Practical 8‑Week Plan
9. Training Details: Pull‑up Volume, Push‑Jerk Power, and Rowing Strategy
10. Psychology and Goal‑Setting: Why Athletes Retest Benchmarks
11. Broader Context: How Other Elite Athletes Revisit Benchmarks and What That Shows
12. Lessons from Bailey’s Retest for Recreational and Masters Athletes
13. Damage Control: When Retests Reveal a Regressive Trend
14. Measuring Progress Beyond the Stopwatch
15. Takeaway: Practical Principles to Preserve Capacity Over Decades
16. FAQ

Key Highlights

• Dan Bailey re‑ran the CrossFit Games benchmark “2007” in his barn gym and finished in 9:56 at age 42 — 32 seconds slower than his 2013 Games time of 9:24.42.
• The result underlines how consistent training preserves capacity across decades and highlights the variables that affect benchmark comparisons: event order, equipment, pacing, and recovery.
• Athletes aiming to retest classic benchmarks should control testing variables, emphasize targeted strength-endurance and power work, and prioritize recovery and tailored programming to slow performance decline.

Introduction

A video of Dan Bailey tackling “2007,” one of the CrossFit Games’ most recognizable benchmarks, landed with equal parts nostalgia and practical insight. Bailey, a five‑time Games veteran whose career helped define modern CrossFit standards, set out to repeat a test he first completed on the competition floor in 2013. He finished in 9:56 at 42 years old — comfortably under ten minutes, only slightly slower than the 9:24 he posted at age 29 after several grueling events.

This retest offers more than a highlight reel. It surfaces concrete lessons about how top‑level fitness ages, how benchmarking works when conditions change, and how athletes at any level should prepare if they want to measure themselves against past performances. The coming sections break down the workout, compare the two performances, dissect the variables that influence repeat tests, and provide practical training and recovery guidance for athletes who want to retest benchmarks responsibly and effectively.

The “2007” Workout: Structure, Demands, and What It Tests

The workout labeled “2007” in CrossFit lore begins with a 1,000‑meter row followed by five rounds of 25 pull‑ups and 7 push jerks at 135 pounds. On paper the set looks simple: a short aerobic effort, high‑volume gymnastics, and repeated heavy overhead power. In practice the test exposes an athlete’s blend of aerobic power, grip and upper‑body endurance, and lower‑body power-to-fatigue — all under a time domain that favors sustained tempo and efficient pacing.

Physiological demands

• The 1,000‑meter row sits squarely in the high‑intensity aerobic/anaerobic zone. Athletes need the capacity to generate and sustain power for roughly three to four minutes without overreaching before the first round of pull‑ups.
• The pull‑ups present a muscular endurance and technical challenge. Each round requires 25 quality reps; fatigue accumulates both within a round and across rounds. Athletes who string reps unbroken preserve time but risk earlier grip and shoulder fatigue.
• Push jerks at 135 pounds demand lower‑body drive and timely turnover. For many male athletes, that load is substantial enough to create a performance differentiator: power output and shoulder/joint tolerance are decisive.

What the test reveals

• Conditioning vs. strength balance: athletes strong enough to push jerk efficiently but weak in pull‑up endurance will hit a ceiling and vice versa.
• Pacing and rhythm: the total time reflects not only maximum capacity but how well the athlete transitions between modalities and maintains volume without unnecessary pauses.
• Technical efficiency: small differences in pull‑up kipping mechanics or push jerk technique accumulate into tens of seconds over five rounds.

The original CrossFit Games context amplified these demands. When performed after multiple events, “2007” tested not only raw fitness but the ability to perform under accumulated systemic fatigue.

How Bailey’s 2026 Retest Compared to His 2013 Games Performance

Bailey entered the retest with crisp awareness of the benchmark and his history. His 2013 official time, posted at the CrossFit Games after several prior events, read 9:24.42. In the barn gym video he delivered 9:56 while fresh. This 32‑second gap frames several useful observations.

Fresh versus fatigued The 2013 time was recorded during competition under cumulative fatigue. Achieving 9:24 after earlier tasks demonstrates extreme conditioning and recovery capacity within a multi‑event competition. Bailey’s barn time was posted when he was fresh and fully recovered, a condition that should theoretically save time. That he was slower suggests that his competition peak conditioning in 2013 was exceptional and that the decline over the intervening years is modest, not precipitous.

Equipment and environmental differences Bailey noted his home pull‑up bar had more “bounce” than the A‑frame rigs used at the Games. A forgiving kipping bar can translate into faster, more efficient pull‑ups by improving rebound and reducing eccentric load. Conversely, competition rigs are designed to be consistent but less yielding. Other environmental factors — flooring, bar height, presence of judges, adrenaline and crowd noise — also affect performance. Even subtle changes in bar stiffness or platform give measurable advantages.

Pacing and mental factors Competing at the Games introduces adrenaline spikes, different pacing decisions, and external pressures that can enhance or hinder time. Athletes often discover untapped intensity in competition; Bailey’s 2013 time, achieved after prior events, may reflect that heightened state. On the other hand, testing alone in a familiar environment can foster better technique and lower error rate, but it often lacks the competition‑driven microbursts that shave seconds off the clock.

Interpreting the gap A 32‑second difference across 13 years is small. It indicates that a disciplined athlete who maintains training can preserve a large portion of capacity. It also underscores how much performance at elite levels depends on context: equipment, event order, and physiological readiness.

Variables That Skew Benchmark Comparisons — Why Retests Aren’t Always Apples‑to‑Apples

Athletes and coaches often re‑run classic workouts to “see where they are,” but retests frequently carry uncontrolled variables that distort meaning. Understanding those variables turns retrospective comparisons into usable data.

Event order and pre‑fatigue

• Performing a benchmark in isolation versus after prior events changes the physiological starting point. Muscle glycogen, central nervous system readiness, and metabolic by‑products differ. A test after multiple events measures resilience and recovery in addition to raw capacity.

Equipment differences

• Pull‑up rigs with different degrees of flex, knurling, or bar diameter change mechanical advantage.
• Rowers vary slightly in calibration and feel; a well‑maintained Concept2 at a competition can produce a different pacing experience than a home rower.
• Barbell knurling, ring height, and platform friction all influence rep speed.

Environmental and psychological factors

• Competition adrenaline raises catecholamines, enabling short spikes in power and reduced perceived exertion.
• Presence of judges and athletes triggers faster pacing and fewer safety pauses.
• Warm‑up protocols in competition are often compressed and targeted, creating a different physiological ramp than an at‑home warm‑up.

Rule and scale differences

• CrossFit Games require strict movement standards. Retests that permit scaled or modified versions of pull‑ups or push jerks will yield incomparable times.
• Small technical allowances in training settings reduce time but may not reflect competition standards.

Account for these variables When athletes want meaningful retests, they should replicate critical variables: same equipment where possible, comparable warm‑ups, and similar movement standards. When replication isn’t possible, record the differences and interpret the results as directional rather than definitive.

What Bailey’s Sub‑10 Finish Says About Aging Physiology and Training

Athletic aging follows biological rules, but training alters the slope. Bailey’s result demonstrates that consistent, focused training blunts decline in several measurable ways.

Expected physiological changes with age

• Aerobic capacity: Maximal oxygen uptake (VO2 max) generally declines with age. Estimates place the decline at roughly 0.5–1 percent per year after the 30s for untrained individuals. Trained athletes often experience smaller declines.
• Muscle mass and strength: Sarcopenia — the age‑related loss of muscle — progresses over decades. Resistance training slows or reverses this trend in most muscle groups.
• Neural factors: Motor unit recruitment and rate coding can become less efficient with age. This affects explosive movements like push jerks more than submaximal endurance tasks.
• Recovery capacity: Hormonal shifts and slower tissue repair increase the need for planned recovery.

How training narrows the gap

• Strength training maintains motor output. Athletes who sustain heavy, frequent strength work keep power outputs higher into middle age.
• Volume and specificity maintain muscular endurance. Consistent practice of pull‑up volume preserves kipping mechanics and grip endurance.
• Smart conditioning — alternating high‑quality intervals with steady aerobic work — sustains VO2 and lactate clearance.

Bailey’s performance suggests he preserved a large portion of the neuromuscular and aerobic qualities required by the workout. The relatively small time gap points to sustained strength, preserved pull‑up durability, and retained power output during push jerks.

Age‑related strategies that likely helped Bailey

• Consistent strength work to retain power and joint integrity.
• Regular pull‑up and gymnastics practice to preserve technique and tendon resilience.
• Focused recovery protocols — sleep, mobility, and nutrition — to support training frequency.
• Avoidance of overtraining and careful load management to stay healthy across seasons.

These strategies highlight a broader truth: decline is inevitable, but quality and consistency of training determine the rate of loss.

Equipment and Technique: Small Differences That Yield Big Time Gains

Bailey himself mentioned the pull‑up bar bounce. That comment illuminates how mechanical variance changes workload.

Pull‑up rig bounce

• Kipping pull‑ups can exploit bar flex to generate rebound momentum. A more flexible bar returns energy into the athlete’s system, reducing muscular eccentric demands.
• Competition rigs are often more rigid, requiring stronger active pulling and stricter body tension.

Rowing variables

• Calibrations on ergometers should be checked. Slight differences in damper settings or chain lubrication influence stroke feel and pacing.
• Indoor rowing performance scales differently than running times; consistent erg maintenance helps produce reliable retest comparisons.

Push jerk technical variables

• Foot placement, dip depth, and turnover speed affect efficiency. Small technical losses under fatigue add seconds.
• Athletes who pause between reps lose pump and rhythm; single‑motion cycling minimises losing velocity.

Recommendations for equitable retests

• Use the same erg model and similar maintenance state.
• Match bar rigidity and movement standard as closely as possible.
• Record environmental notes — like ceiling height, bar rig type, or floor surface — when logging retest times.

Awareness of these details lets athletes contextualize retests and draw meaningful conclusions.

Preparing to Retest a Classic Benchmark: A Practical 8‑Week Plan

Athletes who decide to retest a benchmark like “2007” benefit from a structured approach. The following example is a practical eight‑week plan designed to optimize rowing power, pull‑up endurance, and push jerk output while prioritizing recovery. Adjust volumes and loads by experience, age, and injury history.

Overview

• Frequency: 4–5 training days per week
• Focus blocks: Weeks 1–3 build volume and base, weeks 4–6 intensify strength and power, weeks 7–8 taper and sharpen
• Key sessions: Row intervals, pull‑up density work, push jerk strength and speed, mobility and recovery

Weeks 1–3: Base volume and technical reinforcement

• Day A (Row + Pull‑up skill)
  • Warm‑up: 8–10 min dynamic mobility + 5 min easy row
  • Main: 6 × 500 m row at 95–100% of race pace with 90s rest (focus on consistent splits)
  • Accessory: 6 sets of 8–12 strict pull‑ups or ring rows (add band/resistance as needed), 3 sets of 10 hollow-body holds
  • Cool‑down and mobility
• Day B (Strength)
  • Warm‑up
  • Back squat: 4 sets × 5 at RPE 7
  • Push jerk technique: 6 sets × 3 @ 60–70% 1RM with focus on rebound and turnover
  • Core stability work
• Day C (Endurance + Pull‑up density)
  • 20–30 minute aerobic row or bike at conversational pace
  • Pull‑up EMOM (every minute on the minute) for 12 minutes: 5–8 kipping pull‑ups or 8–12 ring rows
• Day D (Power and recovery)
  • Olympic derivative (power clean or hang clean) 6 sets × 2 at moderate loads
  • Mobility, soft tissue work, and breathing exercises

Weeks 4–6: Intensify and sport‑specific density

• Increase push jerk loads and prioritize cluster sets for pull‑ups.
• Day A (Row intervals + benchmark pacing)
  • 3 × 1,000 m row at target pace with 6 minutes rest; aim to hold consistent splits across reps.
• Day B (Strength and push jerk power)
  • Push jerk heavy triples: 5 sets × 3 at 75–85% 1RM
  • Pull‑up clusters: 5 rounds of 25 total pull‑ups broken into manageable sets (10/8/7 or 8/8/9)
• Day C (Micro‑simulations)
  • Simulate a mini “2007”: 1,000 m row + 2 rounds of 25 pull‑ups + 7 push jerks at 135 lb; track transitions and recovery.
• Maintain active recovery day and mobility session.

Weeks 7–8: Taper and sharpen

• Reduce overall volume by 30–50% while preserving intensity.
• Short, high‑quality efforts:
  • 1 × 1,000 m row at race target pace
  • 3 rounds of 15 pull‑ups, unbroken if possible, to maintain rhythm
  • Push jerk singles at 85% 1RM for speed
• Final 3–4 days before retest: rest more, prioritize sleep and nutrition, run a targeted warm‑up.

Warm‑up checklist for retest day

• 10 minutes aerobic with 3 × 15‑second surges
• Dynamic shoulder and thoracic mobility
• 2–3 build‑ups on the rower finishing with 30 seconds at target pace
• 2 sets of 8 kipping pull‑ups at submax intensity to groove rhythm
• 3 push jerks with increasing weight to target load

This plan emphasizes balanced progression and replicable standards. Athletes with limited time can compress phases but should not skip technical work.

Training Details: Pull‑up Volume, Push‑Jerk Power, and Rowing Strategy

Successful retesting requires targeting the three movement domains with specific, measurable drills.

Pull‑up strategy

• Build density before max attempts. Volume work conditions the tendons and nervous system for repeated reps.
• Use cluster sets and consecutive days of moderate volume rather than one weekly grind. For example, 4 days/week of 80–120 total pull‑ups in sets of 5–12 preserves quality.
• Include strict strength sets to support kipping efficiency: weighted pull‑ups and isometric holds strengthen the top and bottom ranges.
• Address grip by training dead hangs, farmer carries, and high‑rep ring rows.

Push‑jerk strategy

• Prioritize triple extension and fast turnover. Power clean variants and push‑press complexes build drive without excessive technical load.
• Work heavy triples and speed singles. Heavier triples develop tolerance to the load; speed singles maintain neural quickness.
• Accessory: split‑jerk technique and jerk recovery drills help refine footwork and landing efficiency.

Rowing strategy

• Do both short intervals and threshold work. 500–1,000 m intervals train race pace; longer rows (20 minutes) sustain aerobic base.
• Practice the first 1,000 m as a “warm‑up race.” Because it prefaces the pull‑ups, athletes should train to feel strong when transitioning from row to gymnastics.
• Calibrate stroke rate and split strategy. Many athletes benefit from slightly conservative start surges that avoid excessive lactate before the pull‑ups.

Recovery and adaptation

• Track recovery metrics: sleep duration, resting heart rate, and perceived readiness. Increase rest when quality declines.
• Use active recovery tools like contrast baths, soft tissue work, and mobility sessions.
• Nutrition: maintain protein intake to support muscle repair and include carbohydrates around key sessions to support high‑intensity work.

Psychology and Goal‑Setting: Why Athletes Retest Benchmarks

Athletes revisit benchmarks for varied reasons: curiosity, accountability, motivation, and a desire to measure progress. The psychology behind retesting shapes how meaningful results become.

Motivational functions

• Retests provide a short, measurable horizon for focused training. They create rhythms: assessment → plan → test → adjust.
• Comparing to past performances can stoke motivation, but it also risks discouragement if expectations are unrealistic.

Data for planning

• A retest gives objective data to inform programming. A slower time may indicate deficits in aerobic capacity, pull‑up endurance, or lack of explosive drive.
• Use the retest to set specific targets. For example: reduce pull‑up set breaks from 3 to 2, increase push jerk speed by 10%, or lower average 500 m split by 2–3 seconds.

Mindset guidelines for mature athletes

• Shift goals from absolute performance to relative improvements: technique, injury resilience, and recovery metrics.
• Celebrate functional maintenance as success. Finishing within a small percentage of a youthful PR indicates high quality of life and fitness.
• Use retests sparingly—every 8–16 weeks—so that training adaptations have time to manifest.

Bailey’s framing offers one example of healthy orientation: he approached the retest as a measure of ongoing capability rather than a demand to outdo his prime self.

Broader Context: How Other Elite Athletes Revisit Benchmarks and What That Shows

Top athletes in many sports return to past tests to measure continuity. CrossFit legends, endurance runners, and masters lifters perform similar rituals, and their experiences reveal patterns.

Examples of benchmarking culture

• Competitive lifters often retest competition lifts annually, using them to guide peaking strategies.
• Endurance athletes retest time trials or standard distances to track aerobic trends across seasons.
• CrossFit community culture emphasizes benchmark workouts (Fran, Murph, Grace). Many athletes retest these as developmental markers and community rituals.

Common patterns among elite retesters

• Most record small declines when retesting decades later, but the declines are far less drastic for athletes who maintain structured strength and conditioning.
• Those who prioritize technical practice in addition to raw training preserve movement efficiency better than those who focus solely on strength or cardio.
• Athletes who respect recovery and periodization enjoy steadier long‑term trajectories and fewer injury interruptions.

The takeaways translate into practical advice: retain technical practice, keep strength sessions in your plan, and treat benchmarks as diagnostic tools rather than purely competitive targets.

Lessons from Bailey’s Retest for Recreational and Masters Athletes

Bailey’s sub‑10 result at 42 provides a model for athletes who want to remain capable and competitive in their age group.

Practical lessons

• Consistency beats intensity for long‑term retention. Regular, moderate training carried across years sustains capacity more reliably than intermittent, extreme efforts.
• Technical repetition matters. For skills like kipping pull‑ups, frequent quality practice preserves efficiency and reduces the injury risk associated with abrupt high volume.
• Prioritize recovery as you age. Longer sleep, targeted mobility, and lower weekly training volume can produce better gains than high throughput with low recovery.
• Benchmark retests should be used for feedback. When a test reveals a deficit, design short, focused blocks to address it rather than chasing a PR impulsively.

Setting realistic expectations

• Expect some decline — small but measurable — as part of the natural course of aging.
• Aim for percent‑based targets (e.g., reduce time by 3–5 percent) rather than absolute times tied to youthful peaks.
• Use retests to confirm program effectiveness, not only to validate ego.

Realistic programming horizons

• For a master athlete seeking to retest “2007” in a meaningful way, a focused 6–12 week block emphasizing pull‑up density and push jerk power is sufficient to produce measurable improvements.
• If joint issues exist, scale appropriately: reduce volume and include alternative movement patterns (e.g., ring rows, push presses) to maintain stimulus while protecting tissue.

Damage Control: When Retests Reveal a Regressive Trend

Sometimes retests expose declines that reflect underlying problems rather than normal aging. When that happens, identify the likely causes and correct course.

Common red flags

• Rapid performance drops across multiple benchmarks indicate possible overtraining, illness, or insufficient recovery.
• Specific weakness (e.g., much slower pull‑up capacity while other systems remain intact) suggests a programming imbalance or structural issue.
• Pain or recurring injury during or after retests requires professional assessment.

Corrective actions

• Step back to quantify volume and intensity. Reduce load for 1–2 weeks and increase recovery modalities.
• Reintroduce technical work gradually. If pull‑up capacity falls, rebuild with high‑frequency, low‑volume sessions and targeted eccentric control.
• Reassess nutrition and sleep. Chronic energy deficit and poor sleep patterns accelerate decline.

When to consult professionals

• Persistent joint pain, unexplained performance drops, or significant sleep or mood disruption warrant medical or sports‑performance consultation.

Measuring Progress Beyond the Stopwatch

A single retest time is a snapshot. Broader metrics produce a clearer picture of fitness and aging.

Useful measures to track

• Training load and perceived exertion across weeks. This reveals adaptation trends and helps avoid training monotony.
• Recovery indices: resting heart rate, HRV trends, and subjective readiness.
• Strength markers: push jerk 1RM or relative power metrics.
• Technical markers: number of unbroken pull‑ups, average set length, and movement efficiency.

Integrating multiple data streams avoids overemphasis on any single benchmark and delivers a more actionable summary for programming decisions.

Takeaway: Practical Principles to Preserve Capacity Over Decades

Dan Bailey’s repeat of “2007” reframes a nostalgic retest into a practical lesson: consistent, balanced training preserves a large portion of elite capacity. The modest gap between his prime and current performance demonstrates the value of technical practice, targeted strength, and recovery.

Principles to apply

• Train movements you want to keep. Regular exposure to pull‑ups and push jerks prevents technique erosion.
• Prioritize sustainable programming. Weeks and months of steady training trump sporadic peaks.
• Control testing variables. To draw meaningful conclusions from retests, match equipment, movement standards, and warm‑up protocols where possible.
• Use benchmarks diagnostically. Let retests point to specific training priorities rather than to punitive comparisons.

Athletes who adopt these principles maximize both performance and longevity — and they preserve the capacity to revisit benchmarks with honesty and perspective.

FAQ

Q: Is it realistic to match or beat my prime times as I move into my 40s? A: Matching a youthful peak is possible for a small number of athletes who maintain an elite level of training and avoid interruptions. Most will see gradual declines; the realistic goal is to slow that decline and prioritize functional health. Regular strength work, disciplined recovery, and technical practice narrow the gap.

Q: How often should I retest a benchmark like “2007”? A: Every 8–16 weeks is a useful cadence. This window allows for targeted training blocks and measurable adaptation while avoiding excessive testing that disrupts training cycles.

Q: My equipment at home is different from competition equipment. How should I interpret my retest time? A: Note the differences and interpret results directionally. If your rig is springier and your rower slightly different, expect an artificial advantage or disadvantage. Record conditions so future retests are comparable.

Q: I’m experiencing pain during pull‑ups after retesting. What should I do? A: Pause high‑volume work and seek an assessment. Start with low‑load volume (ring rows, banded pull‑ups), address mobility and scapular control, and gradually reintroduce intensity. Consult a physical therapist if pain persists or worsens.

Q: Should masters athletes prioritize strength over conditioning? A: Both matter. Strength preserves power and joint integrity, while conditioning supports metabolic capacity. Prioritize strength to maintain muscle mass and power, but include sport‑specific conditioning to keep movement efficiency and stamina.

Q: Can I use retests to guide my offseason programming? A: Yes. Retests provide specific diagnostic feedback that feeds into offseason plans. Use them to identify weaknesses and create focused blocks— for example, a 6‑week pull‑up density block or a 4‑week push jerk power phase.

Q: What warm‑up should I use on test day to replicate competition conditions? A: Include a progressive aerobic ramp, 2–3 race‑pace build sets on the rower, dynamic shoulder and thoracic mobility, movement‑specific warm‑ups for pull‑ups (sets at submax intensity), and a few push jerks at increasing loads to prime technical sequencing.

Q: How do I set realistic retest targets? A: Use percentage goals relative to your best: aim for a 2–5 percent improvement as an attainable short‑term target for focused blocks, or aim to hold within 5–10 percent of your peak over a multi‑year horizon as a longevity goal.

Q: What role does nutrition play in preserving performance? A: A central role. Adequate protein supports muscle repair, carbohydrates fuel high‑quality training, and total caloric intake should match training demands. Micronutrients and hydration support recovery and joint health.

Q: How can I make benchmarking a positive practice rather than a discouraging one? A: Frame benchmarks as diagnostic tools, celebrate functional maintenance, set process‑oriented goals, and use results to refine training rather than to punish past performance. Regularly record context so comparisons remain fair and informative.