Periodization and Annual Plan Notes
Key concepts and definitions
Modalities of training include: resistance, power, conditioning, linear speed, speed–agility–quickness, core, flexibility. These are different training modalities to target various athletic qualities.
RM (repetition maximum): commonly described as a range, here discussed as , i.e., the maximum weight you can lift for a given number of repetitions within that range. The transcript notes a typographical slip ("16 to 15 reps"), but the intended meaning is the weight applicable to 6–15 reps.
General preparatory period goals: largely metabolic, with emphasis on hypertrophy and endurance; higher volume and relatively lower intensity.
Primary training goal shifts as we move through macrocycle phases: hypertrophy and endurance in general prep; strength and power as we approach and enter the competitive phase; transition emphasizes maintenance and continuity rather than new adaptations.
Volume vs intensity relationship:
General prep: lower intensity, higher volume.
Specific prep: higher intensity, lower volume.
Volume and load definitions:
Volume Load concept:
Intensity ranges by modality (illustrative examples):
Conditioning and linear speed work: typically around of max effort.
In practice for speed–agility–quickness and form drills, intensity may be reduced to emphasize technique and movement quality.
For pre-competitive sprint work, activities can exceed 100% in certain assisted formats, e.g., 110% max effort in some contexts.
Form and technique emphasis: slower drills for technique/footwork can be used within the general prep to ingrain movement patterns.
Power and its components: improving power generally benefits most team-sport performance (e.g., serving speed in tennis, driving/dunking in basketball, sprinting in football).
Not all sports use the same tuning: the given macrocycle framework is tailored to most team sports (basketball, football, lacrosse, soccer, hockey, volleyball, tennis, baseball); running-specific programs (e.g., distance runners) may differ significantly.
Periodization concepts (overview only): reverse periodization, weekly and daily undulating periodization, block periodization, and conjugate periodization exist, but distances in this class emphasize classical periodization and practical application rather than deep theory.
Classical periodization vs other models:
Classical: general preparatory → specific preparatory → competition; gradual rise in intensity with a concomitant drop in volume.
Summated mesocycle concept: four-week blocks where the key stress variable is increased week to week to drive adaptation; at the end of a block, a deload week reduces stress to promote recovery.
Deload and tapering:
Deload: typically 1–2 weeks of reduced stress (often after loading weeks) to allow recovery; the default in many plans is one deload block between loading cycles.
Research suggests limited benefit of deload for novices (up to ~2 years of training) due to rapid recovery and robust adaptability; deloading is more common in longer annual plans for more experienced athletes.
Mesocycle structure and plan visuals:
A mesocycle is typically 2–6 weeks; within a yearly plan, loading weeks are followed by a deload week; the overall workload fluctuates by phase (preparatory, competitive, transition).
In graphs of workload across a year: black bars indicate loading weeks, gray bars indicate deload weeks; the x-axis is weeks, the y-axis is workload (relative stress).
Needs analysis and season alignment:
The first step in planning is needs analysis, followed by placing the competitive phase at the relevant season start/end dates.
Default durations: pre-competition (precomp) ~6 weeks; transition ~6 weeks; the exact dates can be adjusted for the calendar, preseason, and season structure.
General vs specific preparatory allocation (practical heuristic):
For this class, a rough split is to allocate about half the annual plan to general prep and half to specific prep, acknowledging that novice athletes may benefit from a longer general phase and experienced athletes from a longer specific phase.
ACSM guidelines (conceptual): for most populations, beginner athletes often respond to 2–4 sets per muscle group; in extreme beginner cases, even 1 set per exercise can still be effective due to rapid neural adaptations and early overload responses.
Practical notes for exams:
Memorizing exact numbers is less important than understanding how intensity and volume shift across macrocycles and how to place the competitive phase relative to the season.
You may be tested on where a given RM value best fits (e.g., general prep vs specific prep vs transition) and the expected typical ranges for each phase.
Intensity and volume shifts across macrocycle phases
General preparatory phase:
RM target:
Volume: relatively high; sets often in the lower-mid range (e.g., per exercise in the example).
Primary goals: hypertrophy and endurance through metabolic stress.
Specific preparatory phase:
Intensity: increases relative to general prep; may approach higher RM targets.
Volume: decreases relative to general prep; higher intensity work is emphasized.
Competitive phase:
Intensity: highest during the phase; often near max, with some blocks near max depending on sport and length of the season.
Volume: decreases steadily as intensity increases.
Transition phase:
Both volume and intensity are low; the goal is maintenance of contact and preventing deconditioning, not new adaptations.
Observations about ranges:
The ranges can vary by program and athlete background; the guidance is to understand the directionality (volume down as intensity goes up) and the general macrocycle flow rather than memorizing exact figures.
Periodization models: quick overview
Reverse periodization: high volume with increasing intensity over time; commonly used by bodybuilders aiming for mass (stacking volume) rather than performance.
Weekly and daily undulating periodization: regular, frequent variation in intensity within a week or across days; used with advanced athletes to promote adaptation through varying stress patterns.
Block periodization: focus on one modality per mesocycle (e.g., strength block, then speed block); the Soviet approach popularized this in many contexts.
Conjugate periodization: originated at Westside Barbell; emphasizes multiple concurrent training qualities via varied training stimuli; concerns about confounding recovery factors (e.g., steroid use) require careful interpretation.
Classical periodization (emphasized here): progressive emphases on general prep to specific prep to competition with a smooth transition of increasing intensity and decreasing volume; often preferred for its clarity and historical validation in many sports.
Classical periodization graph vs summated mesocycle
Summated mesocycle concept:
A mesocycle (typically 4 weeks) is the basic unit; microcycles are the weekly cycles within a mesocycle.
The stress variable on the y-axis represents the adaptation target (e.g., load for strength, volume for hypertrophy, time/reps for endurance, or velocity/load for power).
Across a mesocycle, the stress is progressively increased; the 4th week typically features a deload.
In real-world programs, you may see 3- or 4-week loading blocks with a deload at the end before ramping again.
Deload rationale and timing:
Deloads help recovery after accumulation of training stress; the timing and length depend on total loading weeks and athlete needs.
In the example given, there might be two deload weeks in some cycles if the load weeks are long; however, you’ll typically see at least three loading weeks between deloads, and you should rarely have two loading weeks followed by two deload weeks in a row.
Why the default graph matters:
It visually communicates the typical progression: increasing stress (load/volume/intent) with intermittent recovery blocks to maintain adaptations and avoid overtraining.
Annual planning steps (needs analysis, phase alignment, and timing)
Step 1: needs analysis and season alignment
Identify start and end of the competitive season
Place the competitive phase accordingly (start of season to end of season)
Step 2: place precomp and transition around the competitive phase
Default precomp duration: (adjustable if preseason exists)
Default transition duration: (adjustable if needed due to calendar constraints)
If a preseason exists (e.g., professional sports), additional blocks may overlay with the annual plan.
Step 3: allocate preparatory phases
Preparatory phases split into general prep and specific prep; the split is influenced by athlete experience and goals.
Novice athletes: longer general prep to build broad base; experienced athletes: longer specific prep to refine sport-specific performance.
In class practice, a rough 50/50 split is suggested, recognizing real-world adjustments.
Step 4: set broad dates and relative durations
Use month-level planning to anchor phases; exact day-to-day dates can be adjusted while keeping the relative duration in the ballpark.
Example: start of specific prep ends at the start of competition; start of general prep begins after transition.
Step 5: compute minimum and maximum numbers of mesocycles per phase
Determine the phase length in weeks (approximate) and the allowed mesocycle lengths (e.g., 2–6 weeks per mesocycle).
Then compute min/max mesocycles by dividing phase length by the longest/shortest mesocycle length, respectively, and consider how many weeks you can allocate to each block.
Example: Collegiate football annual plan (illustrative workflow)
Given timeline (example dates):
Competitive period: start = September 2, end = January 6 (season ends with championship on January 6).
Precomp (6 weeks) follows the end of transition prior to season start; transition (6 weeks) precedes general prep.
Step-by-step setup (as described in the transcript):
Place the competitive period from September 2 to January 6.
Place the precomp block to end just before the competitive period; the exact start is adjusted to achieve roughly six weeks of precomp, ending around late August to early September depending on calendar alignment.
Place the transition block after the competitive season, ending roughly a few weeks before the next cycle starts (the example computes a transition ending around February 15 with a five-week window in the narrative).
Split the remaining time between general and specific preparatory phases.
Rough calendar alignment approach demonstrated in the talk:
Work backward from the start of the competitive period to place the six-week precomp, then backward from that to place the transition, and finally allocate the remainder to general and specific prep.
The example used months around February–May to represent the general prep window and months around May–August to prepare for the competitive season.
Example calculations for mesocycle counts (illustrative, based on the described dates):
General preparatory phase length: roughly two and a half months ≈
Minimum number of mesocycles: 2 (longest mesocycle length = 6 weeks; 6 + 4 or 5 + 5 weeks)
Maximum number of mesocycles: 5 (shortest mesocycle length = 2 weeks; 2 × 5 = 10 weeks)
Competitive phase length: roughly four months ≈
Minimum mesocycles: 3 (longest mesocycle length = 6 weeks; e.g., 6 + 6 + 4 = 16)
Maximum mesocycles: 8 (shortest mesocycle length = 2 weeks; 2 × 8 = 16)
Transition phase length: about 5 weeks in the given plan; often treated similarly to other phases with 3–4 loading weeks and 1–2 deload weeks depending on the schedule.
The exact counts depend on the chosen mesocycle lengths (2–6 weeks) and the total phase duration; practical planning favors a reasonable middle ground rather than exact calendar alignment.
Practical takeaway from the example:
The exact dates are less important than understanding how long each phase lasts, how many mesocycles fit, and how to allocate a roughly equal split between general and specific prep for a balanced annual plan.
The goal is to align the plan with the season and ensure progression of stress (load/volume) in the mesocycles while incorporating deloads to promote recovery.
Exam-oriented tips from the example:
Be able to identify where a given RM value fits within the macrocycle (e.g., 6–15 RM in general prep vs 1–4 RM nearer to competition).
Be comfortable with estimating phase durations and calculating approximate mesocycle counts rather than memorizing exact calendar dates.
Recognize when to adjust phase lengths due to preseason, calendar constraints, or sport-specific considerations.
Practical implications and real-world relevance
The framework provides a practical, sport-centered approach to planning training cycles that emphasizes
progressive overload through escalating stress within mesocycles,
strategic reductions (deloads) to enable recovery and continued adaptation,
a clear delineation between general base-building (hypertrophy/endurance) and sport-specific preparation (power, speed, and skill maintenance),
and alignment with the athlete’s season (start and end dates) to maximize in-season performance.
Ethical and practical considerations:
The concept of undulating and conjugate periodization should be applied with caution in high-stakes populations (e.g., professional athletes) where recovery, sleep, nutrition, and medical oversight can affect adaptation and safety.
Recovery strategies (deloads, nutrition, sleep) must be integrated with the training plan to ensure safe progression and reduce injury risk.
Real-world relevance:
The framework is applicable to team sports where improved power and efficiency of movement translate to performance gains (e.g., faster sprints, higher jumps, better accelerations during games).
It also provides a structured approach to communicating plans with athletes, coaches, and support staff, and to documenting adjustments across a season.