Forget what you see on UFC Countdown. Flashing lights, battle ropes, and hard prowler circuits may look great for TV, but are less likely to get you in great MMA fighting shape. Conditioning needs to transfer to the sport of MMA.
Conditioning for MMA requires having well developed aerobic conshditioning to be able to maintain a work to rest ratio of 1:2 to 1:4 of high-intensity activity to low-intensity activity. Further, the ability to maintain power during high-intensity activity will increase your chances of finishing your opponent.
MMA is a relatively new sport having only really started to grow in popularity since the first UFC event in 1993. Because of this, research is scarce when analyzing the sport of MMA. Much of the research dates back to the early 2010s which may not be as applicable to how MMA is fought currently.
However, by taking an objective overview of the latest research combined with earlier research, we can draw observations that may positively influence your training.
In order to know what it takes to become a top MMA fighter and to fight within a professional organization, we must understand what differentiates the elite and non-elite MMA fighters.
Physiological Profile of Elite vs. Non-Elite MMA Fighters
Aerobic performance has mainly been studied in the regional MMA athlete population. However, the UFC Performance Institute has released a book with their aerobic performance standards based on their data with UFC athletes.
Regional Brazilian MMA athletes showed very poor VO2max values at 44 ml·kg-1·min-1 indicating generally poor aerobic conditioning in these athletes . While regional and amateur MMA fighters in the USA showed VO2max values of 55 ml·kg-1·min-1 ranging between 50 and 60 in the welterweight division .
This seems to be on par with what the UFC PI indicates as the average VO2maxin their elite MMA population .
Another study in elite MMA (it was not mentioned what they considered elite) found 5 MMA athletes had VO2max values of 60 ml·kg-1·min-1 in the welterweight division but it wasn’t disclosed the individual values so it’s difficult to draw conclusions from such a small sample size .
Further, a case study on Top 2 Australian ranked MMA fighter observed a VO2max value of 56 ml·kg-1·min-1 in the middleweight division putting him within the 68% of the UFC population in that weight class .
These values are also similar to those found in elite amateur boxers indicating the importance of the aerobic energy system in MMA.
However, some athletes in the UFC display even greater aerobic performance. Within the same welterweight division, the top 2.5% of fighters have VO2max values greater than 65 ml·kg-1·min-1. Elite lightweights and flyweights in the top 2.5% have VO2max values greater than 67 and 69 ml·kg-1·min-1 respectively.
A Polish UFC middleweight has been observed to have a VO2max of 58 ml·kg-1·min-1 placing him in the top 16% of UFC middleweights in terms of aerobic conditioning .
For reference, elite endurance triathletes have VO2max values ranging between 70-80 ml·kg-1·min-1 .
Research is far scarcer regarding anaerobic qualities in MMA. This means we will have to resort to single-athlete case studies.
The Australian ranked MMA fighter referenced earlier was also put their anaerobic power and capacity testing for the upper and lower body . This athlete showed absolute upper and lower body peak power of 841 and 934 Watts for the 30 second Wingate test.
This translated to 9.7 and 10.4 W.kg when calculated relative to body weight. Anaerobic capacity for the upper and lower body came out to 542 and 711 W respectively which translated to 6.1 and 7.9 W.kg when calculated relative to body weight.
Another case study investigated a Top 10 UFC Light Heavyweight who displayed similar lower body anaerobic power in relation to body weight of 10.4 W.kg with absolute anaerobic power topping out at a whopping 1075 W .
Only some wrestlers have been shown to display similar absolute power outputs . Another case study with a UFC middleweight found upper body absolute anaerobic peak power to be 720 W which translated to 7.1 W.kg when made relative to body weight . Anaerobic capacity was 630 W translating to 8.1 W.kg relative to body weight.
This middleweight displayed less anaerobic power relative to body weight but greater capacity relative to body weight compared to the Australian middleweight.
Unfortunately, we don’t have any data on non-elite MMA athletes to compare to. However, lower body anaerobic power and capacity in sports such as wrestling and boxing show similar values to our case studies listed above relative to body weight .
It is interesting to note that the Polish UFC middleweight showed extremely high upper body anaerobic capacity values of 8.1 W.kg which exceeds lower body values in almost all sports such as boxing, hockey, basketball, and soccer .
Perhaps this specific athlete has a strong wrestling background and has developed the ability to handle high power outputs for long durations.
Overall, the limited research suggests that MMA requires a very well-developed aerobic energy system to not only handle fighting 3 to 5, 5-minute rounds but to also facilitate recovery between rounds.
Further, anaerobic qualities may differ by the style of fighter where wrestling based MMA athletes potentially show greater upper body anaerobic capacity.
Activity Profile Of An MMA Bout
The work to rest ratio of regional level MMA has been found to be 1:2 to 1:4 . Work time ranged from 6 to 14 seconds while “rest” time lasted 46 to 62 seconds. Data from the UFC seems to align with these findings work to rest ratio was found to be 1:3 to 1:4 .
They found that the work period was approximately 8-14 seconds of high-intensity effort with lower-intensity effort last 3 to 4 times longer .
However, these findings don’t distinguish between weight classes which can show drastically different activity profiles.
A study analyzed 2097 UFC fights from 2012-2014 and separated the results by weight division . Regardless of weight class, the work to rest ratio was found to be 1:3 which is in accordance with previous findings.
However, flyweight and bantamweight fighters spent more time in groundwork than light heavyweights and heavyweights. They also spent more time performing high-intensity actions and less time in low-intensity actions compared to the heavier weight classes showing lighter weight classes are more active.
Another study analyzed 41 UFC events in 2013 and 2014 observed contrasting findings where heavier weight classes spent more time on the ground than lighter weight classes. However, this was reversed when it came to stand-up where lighter weight classes spent more time on the feet compared to heavier weight classes .
Heavier weight classes also had a higher frequency of strikes than lighter weight classes. But how does the activity profile look in a 5 round fight?
It seems in the 4th round, activity drops dramatically . The 4th round seems to be the most advantageous for grapplers due to the pacing strategy to last for the 5th round and the fatigue generated from the previous rounds may allow a fighter to control an opponent with low-intensity grappling.
Further, the 4th round seems to have 1/3 less striking frequency and longer periods of low-intensity action with more grappling action.
However, the 5th round sees a 50% increase in strikes compared to the 4th round to levels similar seen in the 3rd round.
According to the UFC PI, fighters will average 8.5 strikes per minute with a general trend of strikes per minute decreasing as the weight class increases .
We can sum these findings up to suggest that a 1:2 to 1:4 work to rest ratio is valid regardless of the level of competition.
What Influences Success In MMA Bouts?
351 UFC fights were analyzed from 2014 to ascertain what technical components influence a winning performance . They found winners were able to increase activity from round to round whereas losers decreased activity.
Winners spend the first round ‘reacting’ to an opponent and ‘feeling them out’ and then transition into an ‘anticipatory’ mode where they are better able to read their opponent. In contrast, losers reduce their key actions after the first round.
Winners are better able to anticipate their opponent’s attacks making developing technical skill and agility important qualities. On the ground, winners had greater submission attempts, advances to half guard, side control, back, and mount position than losers.
Conditioning For MMA
We know that MMA requires a high level of aerobic conditioning. We also understand the importance of the anaerobic lactic and alactic energy systems for fuelling very high-intensity actions.
In fact, 77% of all UFC fights are ended in the 8-14 second high-intensity work period.
So an MMA fighter must be explosive, fast, and have a gas tank to utilize their skillset throughout the entire 5-minute rounds.
Aerobic Power & Capacity
Similar to other combat sports, we want to improve the ability to deliver oxygen to the working muscles and utilize that oxygen to remain as aerobic as possible.
The aerobic energy system should be emphasized to the greatest degree during training. The Polish UFC middleweight in the study referenced earlier adheres to this principle which I believe to be very important .
In his 11 week build-up, he spend 7 of them performing 70-87% of his conditioning workload as aerobic exercise. A further 6-20% was spent aerobically but flirting with the anaerobic lactic zone. That left approximately 10% of training time dedicated to anaerobic lactic and alactic conditioning.
It wasn’t until weeks 8-10 where the aerobic emphasis was reduced to 50% of total conditioning load and flirting with the anaerobic lactic zone increased to 25-33% of total conditioning volume. Approximately 25% of total conditioning volume was centered around anaerobic lactic and alactic during this period.
It wasn’t until week 11 where aerobic conditioning dropped to 30%, flirting with the anaerobic lactic zone increased to 43%, and anaerobic lactic and alactic training consisted of 15% each.
If you’ve read my “What Is Conditioning Training” article, you may notice a trend regarding the focus of aerobic development. A similar model was used by the German 4000m Team Pursuit cycling team who broke the world record at the 2000 Olympics .
Their event lasts 4 minutes of maximum intensity riding yet spend 94% of their training preparation training low-intensity aerobic conditioning. Only during the last 8 days before the Olympic event did they start to incorporate high-intensity, anaerobic lactic conditioning.
I believe a similar model to the UFC Polish middleweight should be followed when it comes to MMA conditioning. I like to refer to it as the funnel system.
Cardiac Output Circuits
The goal here is to provide a stimulus to the heart to dilate the inner walls of the heart chamber to allow more blood to be pooled between each heartbeat. In order to do that, your heart rate should sit between 130-150 BPM when performing standing exercise.
If on the ground, you can take off approximately 10 BPM from either side. You will need a heart rate monitor to perform these sessions correctly and I highly recommend the Polar H10 like I do in all of my articles (link to Amazon).
I have the older version and it works great. These are the most accurate heart rate monitors you can get. Don’t bother with a wrist-worn fitness tracker.
Due to the vast amount of skills you need to train, most, if not all conditioning should be performed using MMA specific movements. That means creating a circuit of techniques that you can repeat in a cyclical fashion for 30-60 minutes.
This will also ensure the greatest transfer to your fight while allowing you to hone your technical skills.
Cardiac Power Intervals
These can also be performed using MMA techniques. Mainly heavy bag work and intense takedown sequences. You want to maintain your heart rate as high as possible throughout the working period.
This improves the strength of the heart where it can pump more blood, and therefore deliver more oxygen to the working muscles per heartbeat.
|Week 1||MMA Drills||5 x 60 sec||2-5 min or HR between 120-130 BPM|
|Week 2||OR||7 x 60 sec||2-5 min or HR between 120-130 BPM|
|Week 3||Off-Feet Cardio||9 x 60 sec||2-5 min or HR between 120-130 BPM|
|Week 4||5 x 75 sec||2-5 min or HR between 120-130 BPM|
Due to the intermittent nature of MMA, lower level aerobic exercise can be performed in an intermittent fashion to maintain a high quality of movement while keeping fatigue low. Don’t confuse this with high-intensity interval training (HIIT) that you may see at your local gym class.
The goal is to maintain the same pace throughout the whole training session at around 70-75% of maximal effort. It’s about quality when taking a tempo training approach.
|Week 1||MMA Drills||10 x 40sec @70-75%/20sec|
|Week 2||OR||2x (10 x 40sec @70-75%/20sec)||2-3 min|
|Week 3||Off-Feet Cardio||3x (10 x 40sec @70-75%/20sec)||2-3 min|
|Week 4||OR Callisthenic Circuits||4x (10 x 40sec @70-75%/20sec)||2-3 min|
Anaerobic Lactic Capacity
Specific anaerobic capacity training is likely to be minimal with the vast amount of training being performed. Especially with up to three sessions a day. Most of the anaerobic lactic development will occur through MMA training itself especially as training camp comes to an end.
Increases in the intensity of striking and grappling specific sessions as well as sparring means addressing this energy system with extra work may not be necessary. Focus may be better spent on pushing the boundaries with alactic capacity training.
Alactic Power & Capacity
The average work to rest ratio of MMA lines up near perfectly with alactic capacity intervals. These can be performed by throwing striking combinations on a bag, performing continuous takedowns, or through explosive push-ups and jumps. The former should be the first choice.
Perform these in the same work to rest ratio as is seen in MMA of 1:2 to 1:4. You can even perform these intervals for exactly 3 x 5-minute rounds to replicate the duration of the fight which will definitely be brutal.
|Week 1||MMA Drills||10 x 10 sec/20 sec|
|Week 2||OR Explosive Push-up||2x (8 x 10 sec/20 sec)||8-10 min active recovery (light shadowboxing)|
|Week 3||OR Split Squat Jump||2x (10 x 10 sec/20 sec)||8-10 min active recovery (light shadowboxing)|
|Week 4||3x (8 x 10 sec/20 sec)||8-10 min active recovery (light shadowboxing)|
Alactic power will mainly be developed during strength and power gym sessions. Overall, spend most of your time developing the aerobic energy system and intensify your conditioning as you get closer to your MMA fight.
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1. De Oliveira, S. N., Follmer, B., De Moraes, M. A., Dos Santos, J. O. L., Bezerra, E. D. S., Gonçalves, H. J. C., & Rossato, M. (2015). Physiological profiles of North Brazilian mixed martial artists (MMA). Journal of Exercise Physiology Online, 18(1), 56-61.
2. Schick, M. G., Brown, L. E., Coburn, J. W., Beam, W. C., Schick, E. E., & Dabbs, N. C. (2010). Physiological profile of mixed martial artists. Medicina Sportiva, 14(4), 182-187.
3. UFC Performance Institute.
4. Hue, O., Gallais, D. L., Chollet, D., & Prefaut, C. (2000). Ventilatory threshold and maximal oxygen uptake in present triathletes. Canadian Journal of Applied Physiology, 25(2), 102-113.
5. Alm, P., & Yu, J. (2013). Physiological characters in mixed martial arts. Am J Sports Sci, 1(2), 12-17.
6. Lovell, D. I., Bousson, M., & McLellan, C. (2013). The use of performance tests for the physiological monitoring of training in combat sports: A case study of a world ranked mixed martial arts fighter. J Athl Enhancement, 2(1), 2-6.
7. Bagley, R. J., Arevalo, A. J., Malyszek, K. K., Spencer, A. J., Rosengarten, J., Barillas, S. R., … & Galpin, A. J. (2016). Skeletal muscle phenotype and performance of an elite mixed martial artist. Medicine and Science in Sports and Exercise; Lippincott Williams & Wilkins: Philadelphia, PA, USA.
8. Jakovljević, D. K., Eric, M., Jovanovic, G., Dimitric, G., Cupic, M. B., & Ponorac, N. (2018). Explosive muscle power assessment in elite athletes using wingate anaerobic test. Revista Brasileira de Medicina do Esporte, 24(2), 107-111.
9. Tota, Ł., Drwal, T., Maciejczyk, M., Szyguła, Z., Pilch, W., Pałka, T., & Lech, G. (2014). EFFECTS OF ORIGINAL PHYSICAL TRAINING PROGRAM ON CHANGES IN BODY COMPOSITION, UPPER LIMB PEAK POWER AND AEROBIC PERFORMANCE OF A MIXED MARTIAL ARTS FIGHTER. Medicina Sportiva, 18(2).
10. Gacesa, J. Z. P., Barak, O. F., & Grujic, N. G. (2009). Maximal anaerobic power test in athletes of different sport disciplines. The Journal of Strength & Conditioning Research, 23(3), 751-755.
11. Del Vecchio, F. B., Hirata, S. M., & Franchini, E. (2011). A review of time-motion analysis and combat development in mixed martial arts matches at regional level tournaments. Perceptual and Motor Skills, 112(2), 639-648.
12. Miarka, B., Coswig, V. S., Vecchio, F. B., Brito, C. J., & Amtmann, J. (2015). Comparisons of time-motion analysis of mixed martial arts rounds by weight divisions. International Journal of Performance Analysis in Sport, 15(3), 1189-1201.
13. Miarka, B., dal Bello, F., Brito, C. J., & Amtmann, J. (2018). Technical-tactical ratios by round, genders and weight division of mixed martial arts for training. International Journal of Performance Analysis in Sport, 18(1), 78-89.
14. Miarka, B., Coswig, V. S., & Amtmann, J. (2019). Long MMA fights technical-tactical analysis of mixed martial arts: implications for assessment and training. International Journal of Performance Analysis in Sport, 19(2), 153-166.
15. Miarka, B., Vecchio, F. B., Camey, S., & Amtmann, J. A. (2016). Comparisons: technical-tactical and time-motion analysis of mixed martial arts by outcomes. Journal of strength and conditioning research, 30(7), 1975-1984.
16. SCHUMACHER, Y. O., & MUELLER, P. (2002). The 4000-m team pursuit cycling world record: theoretical and practical aspects. Medicine & Science in Sports & Exercise, 34(6), 1029-1036.