Friday, 1 March 2013


Metabolic Conditioning Training - The Brains Behind Getting Ripped

As fitness fanatics or industry professionals you would have heard of different training methods such as hypertrophy training, high intensity interval training, endurance training and functional training- and would probably be able to give a text book answer if you were asked what these approaches could achieve. Could the same be true of metabolic conditioning training? Have you heard of it? Could you define it? Relatively new to the training scene (relative to others) this method is also known as metabolic exercise, metabolic training, or metabolic effect. If you want to see the best results using the most cutting edge techniques then this one is definitely for you! If you want some more one to one advice contact us at www.body-aid.co.uk
What is it?

Many programmes are claiming to be “metabolic” so it is important to point out the fakes! Metabolic exercise/conditioning is not aerobic exercise- the body needs to be pushed past it’s anaerobic threshold for it to be classed as metabolic conditioning. Another thing it isn’t….interval training- MCT involves weights so if you’re having a full body heavy weights session but having a rest for a few minutes between sets then this is not. Body part focussed (single joint) workouts are most definitely not metabolic conditioning and neither is standing one legged on a bosu ball whilst your trainer/buddy throws a medicine ball across the gym at you to see if you can balance.
Metabolic  Conditioning is defined as a system of exercises using the understanding of endocrinology, exercise science, strength and conditioning to tax the body’s major energy systems fully- the main goal being to maximise fat burning both during and after exercise. Our experts can design an MCT programme tailored to each individuals current fitness, goals and any barriers to exercise you may face can be over come with our professional advice conatct us at www.body-aid.co.uk

What is it for?

Most training methods focus on developing power, aerobic capacity, muscular endurance or hypertrophy exclusively. Metabolic conditioning however has a sole focus of burning as much fat as possible and are therefore not modelled on any other method or protocol from the past. Cues are taken from the sporting world, with parameters of fitness and challenges on all three body energy systems. In simple terms, athletes do not train to look good, it is merely a by product of their hard work and participation in their chosen discipline. Football players, Rugby players, gymnasts, tennis players, athletes and boxers all perform with a fluid steady movement pattern that can change quickly into chaotic and unpredictable bursts of strength and speed again before resuming as before. MCT is in pursuit to reproduce the nature of sport, combining intervals, resistance training, body weight exercises, plyometrics and explosive Olympic movements in one combined workout. They are hard hitting, fast paced sessions with short or minimal rest periods, using a full fatigue approach.
Combination training

Unlike the single joint, single body part methods MCT focuses on compound exercises working across multiple muscles groups and several joints (squats, power cleans, deadlifts). It also engages hybrid exercises, combining two or more exercises into one. Following the completion of one exercises it quickly moves to the next with little downtime, joining aerobic dominated lower body activities with anaerobically dominated upper body movements for example barbell push press straight into burpees.
In 2001 the Journal Medicine and Science in Sports and Exercise published a study to support the effects of these techniques. The strategy produced a lower body fat and increased muscle gain as well as improve endurance and muscle strength, opposed to aerobics alone. There have been many more since this, with the most recent being in 2008. The Journal of Strength and Conditioning Research produced a ten fold greater fat loss for protocols intermixing weight training and aerobic exercise compared to separate training.

Dont go back to the dark side
A Meta-analysis (a study looking at many other studies) of over 100 studies spanning a 25 year period looking at the benefit of aerobic exercise left the exercise world shocked when it discovered in 1997 and published (International Journal of Sports Nutrition) that there was only a 2lb weight loss advantage using aerobic exercise over diet alone. A more recent study published in 2009 by Exercise and Sport Science Reviews exemplified how traditional aerobic and resistance training have no effect on stimulating the metabolism to burn more body fat. If you compare the stark contrast between these studies and those previously mentioned above it seems that MCT should begin to come into focus for fitness fanatics and trainers alike.

 Action
When training there are 4 main goals to keep in mind while doing MCT- commonly referred to as breathless, burning, heavy and heat. To ensure that you are getting the desired effect from MCT you must hit all 4 of these elements. By the time you complete the workout your body should be highly fatigued. The combination between hard compound weight sets with a mix between light and heavy weights and aerobic exercises such as Jump squats / Lunges will achieve the breathlessness and the burn in the muscle which will have your body screaming at you whilst giving off pleanty of heat, achieving all 4 elements will produce amazing MCT workouts and the results that you are after.
 
By now you should have come to the conclusion that these sessions are seriously intense, however you do not have to be super fit to tolerate them. The cardinal rule of these sessions that rest is an absolute must. If you don’t rest you will pace yourself and revert back to old school cardio- this is the last thing that should happen whilst metabolic training. Ultimately the more you rest the harder you can push, the harder you drive the more rest you will need.  Rest can happen at any time as long as you are getting it.

To summarise

MCT is creating a storm in the fitness industry and changing the way people think about their training and the way they are training others. Although relatively new it is already having an impact and will address the needs of 99% of people who train.

 

 

Thursday, 21 February 2013

Our back! Never knew it was so complex!!


Looking for revision help on your Gym Instructors course or Sports Massage Course? The here is alittle information from us to help you! 
Bones of the spine
In total there are 32 bones which form the spinal column which are split into 5 sections: These sections are a must know on any Personal trainer course or Gym instructors course! 
  • Cervical: This section forms the neck and consists of 7 vertebrae. These are the smallest of the vertebrae as they do not have to carry as much weight. The top two cervical vertebrae are called the Axis and Atlas and allow the head to rotate on the neck. The cervical vertebrae allow the movements of flexion, extension, rotation and lateral flexion (side-bending). 
  • Thoracic: The thoracic spine runs from shoulder level down to the level of the lowest ribs and includes 12 vertebrae which increase in size the lower down the spine they are positioned. Each vertebrae also forms a joint with the adjacent rib (known as a costovertebral joint). The thoracic spine does not move as freely as the cervical or lumbar sections as its main purpose is to provide stability for the rib cage and protection for the organs within the thoracic cavity. 
  • Lumbar: Contains 5 vertebrae and forms the lower back. These are the largest vertebrae due to the additional weight they must carry. The lumbar region also allows a lot of movement, into flexion, extension, rotation and lateral flexion which means it is the most frequently injured section of the back. 
  • Sacral: The sacral spine (or sacrum) consists of 4 fused vertebrae which cannot move independently of each other. This part of the spine is shaped like a triangle and bridges the gap between the two sides of the pelvis, connecting the spine to the lower body. The joints with the ilium (pelvis), either side of the sacrum are known as Sacroiliac (SI) joints.  
  • Coccyx: Contains 4 small fused bones known as the tail bone. These have no real function, although can occasionally be the source of pain known as coccydynia. 
The bones of each section are named with a letter (C for cervical, T for thoracic, L for lumbar) followed by a number which represents its position within that section e.g. C1-C7, T1-T12 and L1-L5.
With the exception of those forming the sacrum and coccyx, vertebrae take the same general form, with some small differences from section to section. The basic shape of a vertebra includes a ‘body’ which is the large flat circular section. This part carries the weight of the vertebrae above it. Inbetween each of the vertebral bodies is a cartilaginous disc which provides cushioning and shock absorption. The very first vertebrae, the Atlas (or C1), does not have a vertebral body. Instead it is a ring of bone which attaches to the second vertebral body (Axis or C2) by the Odontoid process (a small upward protruding piece of bone) about which the atlas rotates.
Protruding from the back of the vertebra are three bony processes. The two either side are called transverse processes with the central one being the spinous process. It is the spinous process’ which are visible running down the backs of most people. These processes form the main site for muscles to attach to the spine.
 In the middle of these three processes is a hole known as the foramen in which the spinal cord passes, from the brain, through the foramen of each vertebra as shown opposite. Between each of the vertebra the spinal cord branches nerves sideways which then travel around the body to supply all muscles and organs.
Joints
The main joints which have been associated with lower back pain are Facet joints (sometimes known as zygapophysial joints) and the Sacroiliac joint.
  • Facet joints occur in pairs at the back of each vertebrae. They connect neighbouring vertebrae and allow movement between them. The facet joints direct the plane of motion at each vertebral segment, which is dependant on their angle and orientation. Throughout the spine the angles and orientations differ which alters the possible movement allowed in that area. Facet joint pain may arise directly from the facet joint either from inflammation or nerve impingement 
  • Costovertebral joints are formed between the heads of the ribs and the bodies of the thoracic vertebrae. There is very little movement available here. The joint can sublux causing mid back pain which radiates into the chest. 
  • Costotransverse joints are between the tubercle of the rib and the transverse processes of the thoracic vertebrae. 
  • The Sacroiliac Joint is formed where the Sacrum meets each side of the pelvis. The joint only allows very small gliding movements when the legs are moved. These joints can often get stuck or in some cases one half of the pelvis can glide forwards or backwards, which is often referred to as a twisted pelvis. Ligaments
The ligaments surrounding the spine connect individual vertebrae and provide support to the whole structure. There are two types of ligament:
  • Intrasegmental ligaments: These connect one vertebrae to another and include the Ligamentum Flavum (a strong ligament which connects the posterior surfaces of each vertebrae), Interspinous ligaments (inbetween each spinous process) and intertransverse ligaments (connecting transverse processes to the one above and below on the same side). 
  • Intersegmental ligaments: These ligaments are long stabilising ligaments which provide support to the spine as a whole. They include the Anterior and Posterior Longitudinal ligaments which run down the front and back of the vertebral bodies respectively and the Supraspinous ligament which is a cord-like ligament which attaches to the tip of every spinous process. 
Deep muscles of the back
The back has many complex muscles 
The number of muscles having one or both attachments within the back as a whole is huge. For the purpose of this section we will look at the muscles which are most often involved in lower back pain.
The deepest and most important muscles when it comes to stability of the spine are collectively known as the Transversospinalis muscles. This group consists of three ‘layers’, the deepest being Rotatores, then Multifidus with Semispinalis being the most superficial. It is thought that these muscles provide precise movements of each vertebra and aid stability in the back.
A second group of muscles which attach only to the spine are known as Erector Spinae. These muscles are more superficial and larger then the Transversospinalis muscles and arise from the thick, broad band of fascia known as the Lumbar Aponeurosis. Erector Spinae consists of three groups of muscles, the Iliocostalis which is the most lateral (outer) and attaches to the ribs, close to their attachment to the spine. The Longissimus arises from the Lumbar Aponeurosis and inserts to the transverse processes of the vertebrae. Spinalis is the most medial (central) muscle which attaches to the lumbar and thoracic spinous processes. All of these muscles are thought to be responsible for extending the spine (leaning backwards).
Superficial muscles of the lower back
There are a large number of muscles in the lower back. Those which are most commonly involved in back pain are:
  • Latissimus Dorsi: This is the largest muscle of the lower back which is responsible for pulling the arm downwards and backwards. It originates from the spinous processes of T6-T12 and the Iliac crest (top of the pelvis), travels upwards across the entire lower back and inserts onto both humerus’ (upper arm bone). 
  • Quadratus Lumborum:  This muscle is responsible for side bending and also aids extension of the lumbar spine. It originates at the Iliac crest and passes upwards to attach to the lowest rib and to the transverse processes of L1-L4 
  • Gluteus Medius: Although strictly a gluteal muscle, it is often associated with low back pain. Its action is to internally rotate (turn the knee inwards) and abduct the hip (take the leg away from the centre of the body). It also has a very important function in maintaining and correcting hip level, which can be a cause of overuse and the development of trigger points. It arises from the outer surface of the Ilium (pelvis) and inserts onto the Greater Trochanter at the top of the Femur (thigh bone).  
As we can see the back is a very complex structure, with lots going on!