Plyometrics for Footballers

Some of the top athletes in the world rely on plyometrics to become faster, more agile and to improve their overall explosiveness.

So why do many football players and coaches shy away from plyometrics?

Some say they can be dangerous.

Others say they’re not necessary for football players because jumping isn’t an inherent focus in every game or for every position.

A few even go so far as to say that unless an athlete can squat 2x their own bodyweight, they shouldn’t be jumping at all.

However, plyometrics are about more than just jumping!

Plyos are used to train what’s known as the “stretch shortening cycle”.

The stretch-shortening cycle (SSC) refers to the ‘pre-stretch’ or ‘countermovement’ action that is commonly observed during movements such as jumping. This pre-stretch allows the athlete to produce more force and move quicker. Though there is controversy surrounding the mechanics responsible for the performance improvements observed from using the SSC, it is likely to be a combination of the active state and the storage of elastic energy within the tendon. Research suggests that training methods which improve muscular pre-activity, such as plyometric and ballistic training, may be beneficial for improving athletic performance.

According to the research, plyometrics training can enhance muscle strength and power (Markovic et al., 2007), speed (Diallo et al., 2001; Impellizzeri et al. 2008; Michailidis et al., 2013) and agility (Arazi et al., 2012; Ramirez-Campillo et al., 2014,).

Studies have found positive effects of short-term plyometrics training on jumping performance in football and other team sport games. It has been reported that plyometric training induces specific neural adaptations such as increased activation of motor units and less muscle hypertrophy than typically observed after heavy-resistance strength training (Sale, 1991).

Plyos are characterised by their use of the stretch-shortening cycle (SSC) that develops during the transition from a rapid eccentric muscle contraction (deceleration or a negative phase) to a rapid concentric muscle contraction (acceleration or a positive phase) (Bedoya et al., 2015; Makaruk et al., 2014; Michailidis et al., 2013). SSC tasks take advantage of the elastic properties of connective tissue and muscle fibers by allowing the muscle to accumulate elastic energy through the deceleration/negative phase and release it later during the acceleration/positive phase to enhance muscle’s force and power output (Michailidis et al., 2013; Padulo et al., 2013).

Therefore, this regime of SSC muscle contractions is a typical part of muscle activity in a number of specific team sport activities including acceleration, changing of directions, vertical and horizontal jumps.

A study by Del Vecchio et al examined the effects of plyos on physical fitness in team sports athletes.

It found that plyometrics training for 4–16 weeks can improve physical fitness in team sport players.

Plyos with low intensity or without progression has lower effects than moderately high intensity and progressive drills. Also the combination of a number of plyometric drills is a more effective method compared to single plyometric drills (i.e. do more than one plyo drill during your sessions). Furthermore, the combination of unilateral and bilateral jump drills seems more advantageous to induce significant performance improvements during high-intensity short-term plyometric training in team sport players.

The general recommendation states that more than 8 weeks of systematic plyometrics training is necessary to improve physical performance in elite players.

However, for children and youth amateurs, short term (<8 weeks) has the potential to enhance a wide range of athletic performance (i.e. jumping, sprinting and agility).

The truth is plyometrics are a key factor in getting faster, more explosive, and developing a quicker first step.

They can even support your kicking power.

There’s no minimum amount of weight you need to squat before using plyometrics.

And there’s no fear of injury, unless you’re performing them wrong.

Plyometrics are just another tool that will help you achieve success.

If you want to be a better overall athlete, you need to be doing plyometrics! Don’t let the misconceptions hold you back any longer!

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Dishon Bernard

Manchester United F.C Defender


References:

1.     Slimani M, Chamari K, Miarka B, Del Vecchio FB, Chéour F. Effects of Plyometric Training on Physical Fitness in Team Sport Athletes: A Systematic Review. J Hum Kinet. 2016;53:231-247. Published 2016 Oct 14. doi:10.1515/hukin-2016-0026

Speed, Acceleration & Change of Direction

Traditional football skills training and ball drills on their own will not make you a faster athlete.

Speed and agility need to be trained in isolation and the development of these two athletic attributes takes place off the field.

Speed & Acceleration

Speed training consists of acceleration mechanics, max speed mechanics and improving rate of force development.

When it comes to football, your straight-line speed can give you the edge over your competition. Being faster than other players will improve your ability to get to the ball on the attack or race back to block a shot as the last line of defence.

However, speed training for football is very different to the kind of speed training elite sprinters will do. All sports performance training should be specific to the sport. Football is reactive and unpredictable. The reason for sprinting is not to reach a finish line. There will be change of direction, acceleration, deceleration, jumping and tackling to consider as well as the sprint! A sprint on a football pitch is also likely to come after you have already spent up to 45 minutes in active competition. 

Acceleration (a critical component of sprinting) separates elite athletes from the rest.  A study by Lockie et al analysed sprinting ability in football players with tests for power, strength and leg stiffness to differentiate elite from non-elite athletes. Subjects were divided into 2 groups based on sprint speed. The elite group were found to have faster acceleration, higher strength and higher power measures than the non-elite group. 

You can work on your acceleration mechanics to make you a more efficient athlete by using some of my favourite drills, including:

-       Staggered broad jumps

-       Ball drops

-       Wall sprints

-       Ground starts

-       Falling starts

-       Jump back starts

Maximum speed is the highest rate of speed an athlete can attain.

In 2020, Mbappe was crowned the world's fastest football player with a top speed of 36+ km/h.

Max speed is particularly important for wide defenders who perform the greatest number of sprints over 20m in a match.  Although wide defenders, wide midfielders and forwards achieve the greatest sprint distance in a match, it is important all players, regardless of position, work on improving their max speed.

Here of some of my favourite max speed drills:

-       A skips

-       B skips

-       Single leg high knees

-       Alternate bounding

-       Elevated hip switch

-       Straight leg shuffle

-       Single leg cycling

Aside from the mechanics and drills, the single most important thing you can do to improve your acceleration and max speed is to get in the gym and improve your rate of force development! Improving RFD will improve a players’ ability to develop larger forces in a shorter period of time making them more explosive. Research shows the combination of both maximal strength and power training improves RFD and is most likely to occur through increases in musculo-tendon stiffness, enhanced muscle force production and increases in neural drive.

Strength training improves rate of force development and has been shown to make football players faster. The value of good sprinting speed for footballers is well supported by research. Ekblom (1986) found that the absolute maximum speed shown during play was one of the parameters that differentiated elite players from those of a lower standard. To be a better player and play at a higher level, you need superior acceleration and maximum speed. 


Agility & Change of Direction

Agility training isn't just about fast feet.

Agility is “a rapid whole body movement with change of velocity or direction in response to a stimulus’’.

It's about integrating the mind and the body to prepare for game situations.

For example, when you're dribbling down the field, and you make a hard cut to get around a defender, that's agility.

To train agility properly, you need to start with change of direction.

These drills should have predetermined movement patterns. In other words, you should know which direction you're going to move before you actually execute the drill. They should include a combination of change of direction "mechanical" drills, plyometrics and drills that sharpen your acceleration and deceleration.

There are loads of change of direction drills you can practice, and you can even make up your own. Some of my favourites for football include:

Linear:

-       Stop and go

-       Accelerate to back pedal

-       Back pedal to hip flip

-       Y cut

Lateral:

-       Lateral shuffle

-       Carioca run

-       Lateral short shuttle

-       Ascending/descending lateral shuffle

You then need to incorporate the cognitive component to properly train agility.

This cognitive component will create better instincts, reactions and more awareness on the field.

Some excellent agility drills for football are the mirror drill and ball drops.

The final point is that each of these drills should be specific to the sport as well as the position!

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Jamie Bynoe-Gittens

Borussia Dortmund & England Midfielder


References:

1.     Lockie RG, Murphy AJ, Knight TJ, Janse de Jonge XAK. Factors that differentiate acceleration ability in field sport athletes. J Strength Cond Res. 2011;25(10):2704-2714

2.     EKBLOM, B. (1986) Applied physiology of football. Sports Science, 3, p. 50-60

3.     Andrzeiewski,M., Chmura,J., Pluta, B., Strzelczyk, R., Kasprzak, A. (2013). Analysis of sprinting activities of professional soccer players. Journal of Strength & Conditioning Research, 27, 2134-2140.

4.     Maffiuletti, N.A., Aagaard, P., Blazevich, A.J., Folland, J., Tillin,N, & Duchateau, J. (2016). Rate of force development: physiological and methodological considerations. European Journal of Applied Physiology, 116, 1091-1116.

Strength Training for Footballers

Should footballers lift weights?


In a word, YES!


There is a common misconception in football that weight training will make you bulky, slow and heavy.


This may be true to a certain extent if you are lifting weights for the purpose of hypertrophy i.e. bodybuilding. However, for sports performance, the purpose of lifting weights is to improve strength, power, speed and muscular endurance.


Your body responds to the training stimulus you place on it so, as an athlete, you need to lift with intent and with the goal always in mind and at the forefront of the programme.


Lifting weights that are close to your maximum will generate strength gains, whilst performing reps quickly with lighter weights will help to improve speed and velocity.


The benefits of resistance training for footballers are well supported by research. For example, De Proft and colleagues had one group of Belgian professionals perform extra weight training during the season. Compared to a control group who did no additional weight training, the players improved their kicking power and leg strength.


Strength training has not only been shown to make football players stronger and more powerful, but research also shows how it can make them faster. As with strength training, the value of good sprinting speed for footballers is well supported by research. Ekblom (1986) found that the absolute maximum speed shown during play was one of the parameters that differentiated elite players from those of a lower standard. This suggests that better players need superior acceleration and maximum speed to play at a higher level.


Research suggests that maximum strength training with heavy resistances will help improve acceleration and speed. However, max strength training during the in-season is very difficult to incorporate because it is likely to cause muscle soreness and fatigue which is tougher to recover from when training intensity is already very high. The recommendation is therefore two or three heavy strength sessions a week during the off-season, reduced to two in pre-season and then strength should be maintained with one session per week once the competitive season has started.


Resistance training is also thought to play a role in injury prevention in adult and youth athletes. Reilly (1990) showed that the stronger players outlasted the weaker players in terms of a regular place in the team and had reduced injury risks. He recommends that leg strength, in particular, is developed, especially in the quadriceps and hamstrings, to help stabilise the knee joint, which is the most frequently injured joint in football. Reilly found that players who voluntarily completed extra strength training were the ones who suffered the fewest muscle injuries. Since maintaining a fully fit squad can be a big problem, it makes sense for clubs to encourage or schedule general strength training for all players. 


Resistance training should be programmed according to the individual athlete’s goals. The table below shows how resistance training can be programmed for strength, power and endurance gains:

Strength-Training-Chart.jpg

The characteristics and type of resistance training are influenced by training experience (beginner, intermediate, advanced) and time of the season (off-season, pre-season, in-season). If you’re new to weight lifting, you should start with a basic resistance training programme focusing on quads, glutes, hamstrings, gastrocnemius and soleus as well as core stability and upper body strength (specifically for the shoulder muscles which may be prone to injury due to the defensive demands on the pitch). Max strength training should only be undertaken by athletes with experience in lifting weights.


Footballers should use their time during off-season to focus on max strength gains which can then translate into power and speed gains during the pre-season and in-season with the correct programming. If all these recommendations are followed, lifting weights should never make an athlete bulky, slow and heavy.


Strength training is often the missing piece of the puzzle. If you’re not currently strength training, now is your time!

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Tariq Lamptey

Brighton & Hove Albion F.C & England Defender


References: 

1.     Baechle, T.R. and R.W. Earle, Resistance training, in Essentials of Strength Training and Conditioning, T.R. Baechle, R.W. Earle, and D. Wathen, Editors. 2008, Human Kinetics: Champaign, IL.

2.     MACKENZIE, B. (2005) Strength training for football players

3.     REILLY, T. (1990) Football. In: REILLY, T. et al. (eds) Physiology of Sports, London: E. and F. N. Spoon

4.     EKBLOM, B. (1986) Applied physiology of football. Sports Science, 3, p. 50-60

Avoiding Boxing Injuries

 

This Article is Sponsored by Studio 9 Fitness. The Premier Sports Performance Facility in Wokingham, Berkshire.

 

 

The potential for injury during a boxing contest is extreme due to the high impact forces which are exerted through varying angles and speeds.

Reducing the risk of injury to the head and neck area is crucial as the high impact forces that the head and neck absorb from heavy punching demand can potentially be career ending.

Strengthening of the neck in all 3 planes of motion has been suggested as one way of helping protect the head and neck from the whiplash effect of head punches. Researchers advocate that stronger, more resilient neck muscles and connective tissue will help absorb the repetitive stress of high impact forces to the head and decrease acceleration and turning forces experienced at impact.

Flexion, extension and lateral flexion isometric exercises are recommended for neck strengthening and as neck muscles grow stronger additional resistance with weight plates can be used.

Even though a boxer’s hands are wrapped when in training and contest, they also experience high impact forces when the boxer delivers blows to the head or torso of his opponent and are therefore vulnerable to skeletal injury.

Fractures of the metacarpals are most common, with a break of the distal fifth metacarpal typically referred to as a “boxer’s fracture”. Strengthening of the hands is often overlooked, but can be achieved by stimulating new bone formation as an adaptation to anaerobic resistance training. For example, performing push ups with a closed fist contacting the floor with the knuckles of the hand will place weight bearing stress on the hands and wrists similar to punching, with much less risk of injury.

Strengthening of the trunk is also recommended as an injury prevention strategy in boxing as strong abdominal muscles will protect the internal organs and help to avoid muscle strains.

The abdominal region is vulnerable to injury as a result of the large amount of body punches a boxer may experience during a bout. With a strong core, the chance of a knock out or injury from one of these blows may be reduced!

Include flexion, rotation, lateral flexion, extension exercises as well as anti-rotation, anti-lateral flexion and anti-extension exercises. Isometric exercises will also aid the boxer’s ability to maintain a static contraction and improve overall trunk stiffness needed for a snappy punch!

Research has also shown that increasing the strength of the shoulder muscles improves a boxer’s ability to withstand acceleration and deceleration forces associated with repetitive punching. Pre-habilitation exercises for the rotator cuff and scapular stabilisers have been cited as an important ingredient to a comprehensive shoulder prehab plan.

 

We are Built not Born.

www.builtnotborn.co.uk

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Charles Frankham

Matchroom Professional Boxer


Reference:

M.B. Wallace, S. Flanagan. Boxing: resistance training considerations for modifying Injury Risks, 1999


 

Plyometrics For Boxing

 

This Article is Sponsored by Studio 9 Fitness. The Premier Sports Performance Facility in Wokingham, Berkshire.

 

 

Plyometric exercise refers to those activities that enable a muscle to reach maximal force in the shortest possible time. Plyometric exercise is a quick, powerful movement using a pre-stretch or countermovement that involves the stretch-shortening cycle.

The purpose of plyometric exercise is to increase the power of subsequent movements by using both the natural elastic components of muscle and tendon and the stretch reflex.

Functional movements and athletic success depend on both the proper function of all active muscles and the speed at which these muscular forces are used. The term used to define this force-speed relationship is power. When used correctly, plyometric training has consistently been shown to improve the production of muscle force and power.

Lower body plyometrics are appropriate for virtually any athlete and sport which require athletes to produce a maximal amount of muscular force in a short amount of time.

Data from Boxing Science how shown a strong relationship between jump height and medicine ball throw distance. This suggests the higher you can jump, the harder you can punch. The ability to jump is reliant on the amount of impulse produced from the lower body.

Lower body plyometric drills include jumping in place, standing jumps/pogos, multiple hops and jumps, bounds, box drills and depth jumps.

Rapid, powerful upper body movements are requisites for many sports including boxing.

Punching forces in amateur boxing are around 2500 N… If you weigh 70 kg (11 stone or 154 lbs), you’ll exert about 700 N of force just stood still. That makes punching force about 3.5 times body mass.

Plyometric training of the shoulder joint would not only increase punching velocity, it may also prevent injury to the shoulder and elbow joints, although further research is needed to substantiate the role of plyometrics in injury prevention.

Exercises include medicine ball throws and slams, catches and explosive push ups.

Traditional resistance training exercises may be combined with plyometric movements to further enhance gains in muscular power. For example, performing a squat jump with a load of 30% of 1RM as an external resistance further increases performance. This is an advanced form of complex training that is appropriate only for athletes who have previously participated in high intensity plyometric training programmes.

 

We are Built not Born.

www.builtnotborn.co.uk

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Laura Pain

Team GB Representative Boxer


Reference:

https://boxingscience.co.uk/explosive-training-boxing/

NCSA Essentials of Strength Training and Conditioning


 

Velocity Based Training for Boxing

 

This Article is Sponsored by Studio 9 Fitness. The Premier Sports Performance Facility in Wokingham, Berkshire.

 

 

Velocity Based Training is when you record the speed of lifts to monitor performance and structure programmes. Here at Built Not Born we use the PUSH Band as a training tool for improving an athlete’s strength and speed.

A forceful punch is dependent on the amount of force produced in a short amount of time. Velocity based training helps us to produce a load-velocity profile of the athlete and set specific velocity targets at different loads depending on the goal i.e. strength, power, speed.

Why do we use VBT?

Training intensity can be difficult to monitor.

Typically, intensity has been calculated as a percentage of 1RM. An athlete’s 1RM is determined at the start of a training programme by testing their maximal strength, and then again at the end of the training programme to monitor progress.

This can be difficult to measure when we take account of daily fluctuations in strength. When fatigue develops, velocity slows.

Technology such as the PUSH Band measures movement velocity as a marker of intensity rather than % of 1RM. It also enables us to reduce the effects of fatigue during strength training as we can use the technology to estimate metabolic stress and neuromuscular fatigue when data is collected and average values of each athlete are taken and compared.


We can also identify and target specific training qualities.


The Strength-Velocity Continuum and associated velocity ranges are shown in the table below for illustration. It shows that when the load gets heavier and the percentage of 1RM reaches closer to the athlete’s 1RM, the velocity slows. It also displays the physical qualities being trained when an athlete is training at a particular percentage of their 1RM and the corresponding velocity.


The distinguishability of traits on the continuum using the velocity of movement has been one of the major advantages of velocity based training.

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 If we want to develop an athlete’s “absolute strength” in the back squat, we might prescribe a load which equates 90-110% of their 1RM, or a maximum velocity of 0.5 m/s or less. Likewise, if the athlete wishes to enhance their “speed-strength”, we may prescribe a load relative to 30-40% of their 1-RM or 1.3-1 m/s.

Velocity based training can add real value to a training programme provided proper technique of exercises is always prioritised.

We are Built not Born.

www.builtnotborn.co.uk

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Olympic Youth Medalist Hassan Azim

1RM Testing on The Bench Press


References:

https://boxingscience.co.uk/velocity-based-training-for-boxing/

https://www.scienceforsport.com/velocity-based-training/


 

Training for the Metabolic Demands of Boxing

 

This Article is Sponsored by Studio 9 Fitness. The Premier Sports Performance Facility in Wokingham, Berkshire.

 

 

Boxing contests can last 3-12 rounds of 2-3 minutes separated by 1-minute recovery in between rounds. The total fight duration depends on level of competition and weight category of the athletes, and the intensity is dictated by the tactics and strategies of boxers involved.

Boxing is an individual sport involving high-intensity intermittent energy systems demands, both aerobic and anaerobic (Smith, 2006). Boxing is estimated to be 70-80% anaerobic and 20-30% aerobic, with a work to rest ratio of 2:1 (A.K. Gosh, A. Goswami, A. Ahuja - Heart Rate & Blood lactate responses in amateur competitive boxing, 2003). This emphasises the need to integrate into a boxer’s training programme specific sessions aimed at increasing a boxer’s lactic acid tolerance. Interval work such as 8 x 1 minute rounds on the focus pads with 1-minute recovery between rounds has been shown to be an effective method of stressing the anaerobic glycolytic energy system (Smith, 2006).

In the research article by Marcus S. Smith in 2006, “physiological profile of senior and junior England international amateur boxers” it was found that:-

 

·       High post-competition blood lactate values highlighted the need for a well-developed anaerobic capacity and the importance of not entering the ring in a glycogen depleted state.

·       The aerobic challenge of competition was demonstrated by maximum heart rate values being recorded during sparring.

·       It was concluded that boxing performance is dependent on the interplay between anaerobic and aerobic energy systems.

Davis et al examined VO2 in a sample of boxers during a 3x 2 minute simulated amateur boxing contest using a breath-by-breath gas analyser and observed that the metabolic profile of amateur boxing is mainly aerobic. It follows that the more rounds in the contest, the more challenge on the aerobic system.

Interval training is a method that emphasises bioenergetic adaptations for a more efficient energy transfer within the metabolic pathways by using predetermined intervals of exercise and rest periods. Christensen, EH, Hedman, R and Saltin, B. Intermittent and continuous running (A further contribution to the physiology of intermittent work) 1960 showed how more training can be accomplished at higher intensities with interval training.

More research is necessary to provide evidence-based recommendations for optimal work-to-rest ratios but NSCA Essentials of Strength Training and Conditioning Fourth Edition provides some general guidance for work to rest ratios for interval training. Those particularly relevant to boxing are:-

90-100% maximum power – primary energy system is phosphagen – typical exercise time of 5-10 seconds – work-to-rest ratios of 1:12 to 1:20

75-90% maximum power – primary energy system is fast glycolysis – typical exercise time of 15-20 seconds – work-to-rest ratios of 1:3 to 1:5

30-75% maximum power – primary energy system is fast glycolysis and oxidative – typical exercise time of 1-3 minutes – work-to-rest ratios of 1:3 to 1:4

Buchheit and Laursen stated that HIIT “is today considered one of the most effective forms of exercise for improving physical performance in athletes”.

To optimise HIIT training adaptations for athletes, HIIT sessions should maximise the time spent at or near VO2 max. The active portions of the intervals should equate to several minutes above 90% of VO2 max.

Data by Boxing Science taken from 6-12 round spars of 3 minute rounds and 30-60 seconds recovery showed that the total time spent in more than 90% of max heart rate was 65% and the average time spent in the “red zone” was 18:16 minutes. Boxing is NOT an endurance sport! It requires repeated high intensities and red zone adaptability.

30 second max effort sprints are 100% sprint efforts for 30 seconds, repeated a minimum of 4 times, with 3 minutes recovery between each 30 second effort.

They help you train your ability to rapidly produce and sustain high-forces that are important to the success of combat sports performance and because your performance is dependent on your aerobic energy system, and although these look like anaerobic efforts, they have a strong aerobic demand, especially as the session continues – and it is this aerobic demand that helps you to improve the way your cells utilise oxygen – therefore helping aerobic performance capability.

Try 30 second max effort sprints on the Skillmill, Prowler or Wattbike.

 

We are Built not Born.

www.builtnotborn.co.uk



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Royston Barney-Smith

Two-Time Schoolboy & European Gold Medalist

 

Strength Training for Boxing

 

This Article is Sponsored by Studio 9 Fitness. The Premier Sports Performance Facility in Wokingham, Berkshire.

 

 

Strength training is the optimal way to develop force production. At Built Not Born, we focus on the main strength exercises in order to maximise force through the Kinetic Chain.

 

Research shows how the relative contribution of the arm muscles has been found to be only 24% as compared with 37% and 39% for the trunk and legs when generating punching force. This means that boxers need a strong lower body in order to generate power through the entire body!

 

Data from Boxing Science has shown a strong relationship between jump height and medicine ball throw distance. This suggests the higher you can jump, the harder you can punch. The ability to jump is reliant on the amount of impulse produced from the lower body.

 

Squats are a compound exercise which load the quads, hamstrings and glutes. The squat is a versatile exercise – for those new to strength training we would start with the goblet squat to develop the correct movement pattern and muscle recruitment, and then progress to the back squat with loaded barbell.

 

Boxers also need a strong upper body to transfer force and to deal with high impact forces. However, boxers are susceptible to upper body injuries. Due to the repetitive nature of training and competition, the muscles and tendons surrounding the shoulder and elbow joints tend to be injured due to overuse and poor mobility. This is why correct technique and mobility drills are so important for strength training.

 

Horizontal and vertical press exercises should be used for boxing. Horizontal push strength exercises include push ups and dumbbell chest press. Vertical push strength exercises include landmine shoulder press and dumbbell overhead press.

 

Vertical pulls are an effective way to develop the lats and muscles in the upper back that support the shoulder. This can help support the shoulder when delivering fast punches. The lats are also important during combination punching to pull back the arm quickly before delivering another punch.

 

Horizontal and vertical pull exercises should be used for boxing. The primary vertical pull strength exercise is the pull up (assisted if the boxer cannot perform the required repetitions with their bodyweight). Horizontal pull exercises include the TRX Row or single arm bent over row.

 

Hinge exercises are excellent for developing the posterior chain in boxers. The posterior chain is important for the Kinetic Chain, particularly extension of the hips. Coaching cues are very important when deadlifting as this exercise can easily lead to injury if not performed with correct technique.

 

The Romanian deadlift, conventional deadlift and trap bar deadlift are all variations that we would utilise with boxers dependent on their needs analysis and factors such as hip and shoulder mobility.

 

Boxers spend so much time in a split stance that they can have imbalances between leg size and strength, resulting in movement and mobility issues. Unilateral (one-sided) exercises are important for developing both legs in isolation.

 

Walking lunges, step ups and deficit reverse lunges are all effective unilateral lower body exercises. We would also use unilateral exercises for upper body to develop those muscles in isolation.

 

Core training for boxing should focus on anti-rotation, anti-lateral flexion and anti-extension. These exercises will all help to resist forces on the lumbar spine and help boxers to develop punching force! Exercises such as palloff press, landmine rotations, side planks, banded dead bugs and suitcase deadlifts should all be used.

 

We are Built not Born.

www.builtnotborn.co.uk

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Amar Kayani

Undefeated Professional Boxer


Reference:

https://boxingscience.co.uk/boxing-training-stronger/