Fitness Genomics

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  • DNA Saliva Sample

The rapidly emerging discipline of exercise genomics increases our understanding of exercise's preventative and therapeutic capabilities by extending our understanding of exercise physiology and human behaviour. This, in turn, assists us in developing training regimens tailored to our body type for the optimum performance results.

Fitness Genomics

Fitness Genomics

Endurance Related

Endurance Learn More

What Exactly Is Endurance?
Endurance is the body's ability to maintain physical activity for an extended amount of time. A high endurance capacity indicates that a person can engage in mild to moderate-intensity activities for an extended period of time with minimal discomforts such as dyspnea and weariness. Aerobic capacity, fat oxidation, aerobic metabolism, lactate threshold, exercise economy and the percentage of slow twitch muscle fibres all influence endurance performance. Genetics have a significant impact in these parameters, determining whether or not an individual is adapted for endurance sports.

Aerobic Capacity Trainability Learn More

What exactly is Aerobic Capacity Trainability and energy production.
Aerobic capacity, commonly known as VO2 max, refers to our body's maximal ability to transport and use oxygen during exercise. During aerobic workouts, oxygen is utilised to break down fuel stores for energy production and its demand rises as exercise intensity rises. Appropriate training increases aerobic capacity, which directly corresponds to enhanced performance. However, genetics governs the extent and ease with which these advancements can be produced. People with favourable genetics find it quite easy to develop their aerobic capacity, whereas others may struggle. The trainability of aerobic capacity is regulated by many genes involved in cellular oxygen supply and utilisation.

Lactate Threshold Learn More

What Does Lactate Threshold Mean?
The body produces lactate during anaerobic glycolysis. The aerobic metabolic pathway uses this lactate as a fuel to generate energy. During vigorous exercise, however, the aerobic system is unable to use up all of the lactate created by the anaerobic system, resulting in a rise in lactate concentration. This is directly related to muscle weariness. As a result, the lactate threshold is defined as the intensity of exercise at which the concentration of lactate begins to grow exponentially, causing exhaustion. Exercise intensity below the lactate threshold can be performed without noticeable unpleasantness or exhaustion. As a result, a higher lactate threshold leads to improved performance since more intense activity can be performed.

Injury Risk

Concussion Learn More

What Exactly Is a Concussion?
Concussion is defined as a brief state of unconsciousness or confusion produced by a blow to the head or rapid shaking of the head and body. It has a brief effect on brain function and may cause temporary cognitive issues. Some symptoms may develop right away, while others may appear days later. Even after the symptoms of a concussion have subsided, the neurons in the brain remain sensitive for some time and another concussion during this period of sensitivity may result in permanent damage to those neurons. As a result, even when the symptoms have subsided, it is recommended that you rest for an extended period of time. Genetics influence an individual's risk of concussion and the sensitivity period following a concussion.

Anterior Cruciate Ligament Injury Learn More

Definition of Anterior Cruciate Ligament Injury
The Anterior Cruciate Ligament (ACL) is one of four major ligaments that connect the thigh bone to the shin bone at the knee joint. The ACL performs various roles, including providing stability to the knee joint and assisting in its function. It keeps the shin bone from migrating forward too far in relation to the thigh bone. It inhibits excessive shin bone internal rotation and knee hyperextension beyond the point of maximal knee extension. Finally, it protects the knee against excessive sideways forces, such as those encountered when a rugby player is tackled from the side. ACL injuries most typically occur during activities involving rapid stops, jumping, or changes in direction that are executed incorrectly. An ACL tear is one of the most common knee injuries, necessitating extensive surgery and a lengthy rehabilitation period of 6-9 months. As a result, determining a person's risk of ACL injury is critical before engaging in activities that may cause ACL damage.

Muscle Injury Learn More

What Exactly Is Muscle Injury?
Exercise puts strain on the muscles, which causes them to deteriorate. Low-level muscle injury is required for muscles to develop and adapt to workout stimulus. However, if a muscle is overly injured, it might result in muscle strains. A strain is a contraction-induced injury in which muscle fibres rupture as a result of significant mechanical stress. Muscle bruising, neuromuscular problems and cramping are examples of other muscle injuries. Muscle injuries cause pain, functional loss of the concerned muscle and, as a result, incapacity to do the specific exercise/sport. A person's genetic profile can influence their proclivity for muscular injury.

Rotator Cuff Injury Learn More

What Exactly Is Rotator Cuff Injury?
The rotator cuff is a collection of four tendons that serve to stabilise the shoulder joint. Its purpose is to maintain the upper arm bone's head firmly within the joint's socket. Rotator cuff injury is caused by a traumatic incident or repetitive shoulder joint movements, as seen in many sports and workouts. This can result in a small strain injury, a partial or total tear of the tendons and loss of shoulder joint function. It causes a dull aching in the shoulder and pain when moving the shoulder joint. A person's genetic profile can influence their proclivity for rotator cuff injury.

Tennis Elbow Learn More

What Is Tennis Elbow and how it effects you?
Tennis elbow, also known as lateral elbow tendinopathy, is a painful and tender ailment affecting the outer region of the elbow. It happens when the tendons in the elbow get overworked, which is commonly caused by repetitive wrist and arm motions. It is typically seen in those who participate in racquet sports. Tennis elbow can, however, be caused by other occupations that require similar repeated motions. A repetitive motion, such as grasping a racket during a swing, can strain the muscles and stress the tendons. This continual yanking can eventually result in microscopic tears in the tissue, resulting in damage.

Achilles Tendinopathy Learn More

What exactly is Achilles Tendinopathy?
The Achilles tendon connects muscles in the lower leg's back to the heel bone. It is the human body's thickest tendon. Achilles tendinopathy is an overuse ailment that occurs frequently, particularly in those who engage in running and jumping activities, as a result of repetitive movement at the Achilles tendon. Other causes that can cause it include trauma, rheumatoid arthritis, wearing high heel shoes and certain drugs. Symptoms range from an aching or pain and swelling in the ankle area to a burning feeling that encompasses the entire joint. The discomfort associated with this illness is typically worse during and after exertion and the tendon and joint area can become stiffer the next day as swelling restricts tendon movement.

Flexibility

Flexibility Learn More

What exactly is flexibility?
The capacity to move through a joint's whole range of motion is referred to as flexibility. Gender, age, exercise levels, temperature and the suppleness of the tissues around a joint, particularly ligaments, tendons and muscles, all influence flexibility. Flexibility improves performance when participating in sports or exercising. It also improves the level of comfort in everyday movements including bending, walking and lifting. The protein collagen regulates the elasticity of the tissues involved, providing a hereditary relationship to flexibility.

Power Related

Power Learn More

What Exactly Is Power and how it play a role in your body?
Power is the ability of the muscles to generate substantial forces at a rapid rate, as seen during high-intensity, short-duration exercises. Jumping, powerlifting, sprinting, bodybuilding and short-distance swimming all make use of the muscle's power-generation capabilities. In general, more power production immediately equates to better performance in such tasks. Genetics play a significant effect in an individual's power generation capacities and hence determine whether an individual is fit for power activities or not.

Exercise Response

Fat Loss Response to Exercise Learn More

What Exactly Is Fat Loss? Exercise Reaction
In human bodies, fat is deposited as triglycerides in adipose tissues. Triglycerides are broken down into free fatty acids during exercise and delivered to the muscles, where they are oxidised to generate energy. This procedure results in fat loss. Regular exercise helps to control weight by oxidising fat and improving metabolism. Losing weight promotes a favourable body image while also lowering the chance of health problems such as diabetes, heart disease, arthritis, high blood pressure and cancer. The efficiency with which people respond to exercise in terms of breaking down triglycerides, transporting free fatty acids and then oxidising these fatty acids is determined by their heredity.

Muscle Damage & Recovery Learn More

Definition of Muscle Damage and Recovery
Muscle injury occurs as a result of exercise. While severe muscle injury is harmful, some muscle damage is necessary for growth and adaptation to exercise stimulus. Muscle damage triggers an inflammatory response, which heals the muscle while also promoting development and adaption. Muscle pain is a symptom of inflammation. Soreness is the sensation of discomfort and stiffness while using a muscle, which makes daily activities difficult. Excessive strain on a painful muscle can result in injury. As a result, it is critical to understand an individual's proclivity for muscle injury after a workout, as well as the rate of recovery from that damage, as these factors will define the intensity of workouts and the appropriate length of rest that should be taken between two workouts. The interplay of multiple genes and their variants governs muscle injury and healing.

Resistance Training and Muscle Building Learn More

What is the difference between resistance training and muscle building?
Skeletal muscles, which can generate force, are in charge of the body's movement. Muscles are the primary powerhouse for fat burning and glucose absorption. Larger muscles require more energy and, as a result, burn more calories, resulting in fat loss and weight management. Muscles also aid in the prevention of diabetes by increasing insulin sensitivity and so protecting against insulin resistance. Increasing muscle mass also results in a more toned appearance, which leads to a more positive body image and self-confidence. Other advantages of greater muscle mass include a lower chance of injury, improved immunity, enhanced strength and energy, a lower risk of arthritis and improved metabolic efficiency. Muscle building is accomplished by combining a weight training plan with a caloric surplus diet high in protein. However, muscle mass development is determined by certain genes. The genetic profile of a person can suggest how readily and to what extent a person can gain muscle mass through training.

Description of Test

Together with environment and experience (that is, nutrition and training), an athlete's biological and genetic make-up plays a significant role in exercise physiology. Some DNA single nucleotide polymorphisms (SNPs) have been linked to athlete performance and level (such as elite/world-class athletic status), influencing physical activity behaviour, endurance, strength, power, speed, flexibility, energetic expenditure, neuromuscular coordination, metabolic and cardio-respiratory fitness, among other things, as well as psychological traits. Sports genomics has the potential to optimise and maximise physical performance while also predicting the danger of sports-related ailments. Exercise has a significant impact on the proteome as well. Proteomics can examine the changes caused by training in both qualitative and quantitative terms.

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