Cholesterol Support 120’s

Practitioner’s Technical Information
For Education Purposes only!!

Introduction to Cholesterol and Lipid Metabolism

Cholesterol is a lipid molecule that plays a fundamental role in human physiology. It is present in every cell of the body and is essential for maintaining the structural integrity of cell membranes. The molecule contributes to membrane stability, regulates cellular permeability, and participates in cellular signalling processes that allow tissues and organs to function normally.

Cholesterol is also the biochemical precursor for several critical substances produced by the body. These include steroid hormones such as estrogen, progesterone, testosterone, cortisol and aldosterone. In addition, cholesterol is required for the production of vitamin D in the skin when exposed to sunlight. Another important function is the formation of bile acids, which are produced by the liver and released into the digestive tract to assist with the digestion and absorption of dietary fats and fat-soluble vitamins.

Although cholesterol can be obtained from dietary sources such as meat, eggs and dairy products, the majority of cholesterol in the human body is produced internally. The liver is responsible for synthesising approximately seventy to eighty percent of circulating cholesterol. The remaining portion originates from dietary intake and intestinal absorption.

Because cholesterol is a fat-like molecule and does not dissolve in water, it cannot circulate freely in the bloodstream. Instead, it must be transported through the blood inside specialised structures called lipoproteins. Lipoproteins are complex particles composed of cholesterol, triglycerides, phospholipids and proteins. These particles act as carriers that move lipids between the liver, tissues and bloodstream.

Maintaining a healthy balance between the different lipoprotein transport systems is one of the most important factors influencing cardiovascular health.

Types of Cholesterol Transport Systems

Cholesterol travels through the bloodstream in several types of lipoprotein particles. Each particle performs a different function in lipid metabolism.

Major Lipoprotein Types

The Five Pillars of Cholesterol Health

Cholesterol balance in the body depends on several interconnected physiological systems. Rather than focusing on cholesterol levels alone, long-term cardiovascular health depends on maintaining balance between cholesterol production, transport, elimination and vascular protection.

The formulation supports these five core physiological pillars of cholesterol metabolism.

How These Five Systems Work Together

Healthy cholesterol metabolism depends on the coordination of all five physiological systems.

When these systems function together efficiently, the body is able to regulate cholesterol naturally without excessive accumulation in the bloodstream or arterial walls.

Overall Practitioner Interpretation

Cholesterol metabolism is regulated through multiple physiological pathways rather than a single mechanism. Effective support therefore requires a comprehensive approach addressing liver metabolism, lipid transport, bile production, vascular protection and metabolic regulation.

The formulation supports each of these systems simultaneously, helping restore balance to cholesterol metabolism and supporting cardiovascular health through improved liver function, antioxidant protection, improved circulation and enhanced lipid metabolism.

This multi-system approach allows gradual improvement in cholesterol markers while supporting overall metabolic and cardiovascular wellbeing.

Comparison Between Metabolic Cholesterol Support and Statin Therapy

Cholesterol management can be approached in different ways. Conventional pharmaceutical treatment focuses primarily on suppressing cholesterol synthesis in the liver. A metabolic support approach works by improving the body’s natural regulatory systems involved in cholesterol metabolism.

Both approaches influence cholesterol levels, but they operate through different physiological mechanisms.

Key Differences in Physiological Approach

Expected Experience for Individuals 

Practitioner Interpretation 

Cholesterol metabolism is influenced by multiple physiological systems including liver function, lipid transport, inflammation, oxidative stress and metabolic regulation. Approaches that support these interconnected systems can provide broader metabolic benefits while helping maintain balanced cholesterol levels.

A metabolic support approach focuses on improving the body’s natural regulation of cholesterol metabolism rather than simply suppressing cholesterol production. By supporting liver metabolism, bile flow, lipid transport and vascular protection simultaneously, a more comprehensive approach to cardiovascular health can be achieved.

Both approaches may influence cholesterol levels, but they operate through different physiological strategies.

The Role of LDL Cholesterol 

LDL lipoproteins transport cholesterol from the liver to tissues throughout the body. Cells require cholesterol to maintain membrane structure, produce hormones and support metabolic processes. In normal physiological conditions, LDL is an essential component of cellular health.

However, when LDL levels become elevated, excess LDL particles circulate in the bloodstream. These particles may penetrate the lining of arteries where they become trapped in the arterial wall. Over time the cholesterol within these particles may undergo oxidative modification, which triggers inflammatory reactions within the blood vessel.

This process leads to the formation of fatty streaks and eventually plaque deposits within the arterial wall. As plaque accumulates, arteries gradually narrow and become less flexible. This condition is known as atherosclerosis.

Atherosclerosis may lead to reduced blood flow to the heart, brain and other organs. If a plaque ruptures, a blood clot may form and block circulation, potentially resulting in a heart attack or stroke.

The Role of HDL Cholesterol

HDL lipoproteins perform a protective role in lipid metabolism. HDL particles collect excess cholesterol from tissues and arterial walls and transport it back to the liver. This process is known as reverse cholesterol transport.

Once cholesterol returns to the liver, it can be metabolised and converted into bile acids. These bile acids are released into the digestive system and eventually eliminated from the body through the intestines.

Higher HDL levels are associated with improved cardiovascular protection because HDL assists in clearing excess cholesterol from the bloodstream before plaque formation occurs.

Cholesterol Production in the Body 

The majority of cholesterol is produced in the liver through a biochemical process known as the mevalonate pathway. The pathway begins with a metabolic molecule called acetyl-CoA, which is derived from carbohydrates, fats and proteins consumed in the diet.

Through a sequence of enzymatic reactions, acetyl-CoA is converted into mevalonate and eventually into cholesterol. One of the key enzymes involved in this pathway is HMG-CoA reductase, which regulates the rate at which cholesterol is produced.

When cholesterol levels rise in the bloodstream, the liver naturally slows down production. When cholesterol levels fall, the liver increases synthesis to maintain balance.

This regulatory system allows the body to maintain stable cholesterol levels under normal metabolic conditions.

Movement of Cholesterol Through the Body 

Cholesterol constantly circulates between the liver, bloodstream and tissues. The overall process can be summarised as follows.

This continuous cycle allows the body to maintain cholesterol balance.

Clinical Biomarker Interpretation with Reference Values

Expected Biomarker Improvements with the Formulation

Lipid Ratios Used by Practitioners

 Typical Timeline of Biomarker Changes

Understanding Cholesterol Risk Factors

Cholesterol imbalance does not occur from a single cause. It usually develops gradually through the interaction of metabolic, genetic and lifestyle factors that influence lipid metabolism, liver function and vascular health.

Understanding the underlying causes of cholesterol imbalance helps practitioners identify the physiological systems that require support.

Several major risk factors influence cholesterol metabolism.

Genetic Factors:

Some individuals inherit genetic variations that affect how cholesterol is produced, transported or removed from the body. These variations can influence lipoprotein production, liver receptor function or the metabolism of triglycerides and fatty acids.

Familial hypercholesterolemia is one example of a genetic condition where LDL receptors in the liver do not function efficiently. As a result, LDL cholesterol remains in circulation for longer periods, increasing the risk of plaque formation.

Although genetics can influence cholesterol levels, lifestyle and metabolic factors still play an important role in determining overall cardiovascular risk.

Dietary Patterns

Diet influences cholesterol metabolism in several ways. Diets high in refined carbohydrates, sugars and processed fats can contribute to elevated triglycerides and the formation of small dense LDL particles.

Excessive intake of refined carbohydrates may also promote insulin resistance, which disrupts normal lipid metabolism. Insulin resistance can lead to increased production of triglycerides and very low density lipoproteins in the liver.

Balanced dietary patterns that include fibre, healthy fats and plant-based nutrients help support healthy lipid metabolism and reduce the absorption of cholesterol from the digestive tract.

Insulin Resistance and Metabolic Syndrome

Insulin resistance is one of the most important drivers of lipid imbalance. When cells become less responsive to insulin, the body produces higher levels of insulin to maintain blood sugar regulation.

Elevated insulin levels stimulate the liver to produce more triglycerides and very low density lipoproteins. This process increases circulating lipids and contributes to the formation of small dense LDL particles.

Metabolic syndrome, which includes abdominal obesity, insulin resistance, elevated triglycerides and high blood pressure, significantly increases the risk of cardiovascular disease.

Liver Metabolism

The liver is responsible for regulating cholesterol synthesis, lipoprotein production and cholesterol elimination through bile.

When liver metabolism becomes impaired due to poor diet, toxin exposure, chronic inflammation or fatty liver disease, cholesterol regulation may become disrupted.

Reduced bile production can also impair the body’s ability to eliminate cholesterol through the digestive tract. Supporting healthy liver metabolism therefore plays an important role in maintaining lipid balance.

Chronic Inflammation

Inflammation within blood vessels contributes to the development of atherosclerosis. When the vascular lining becomes inflamed, LDL particles are more likely to accumulate within the arterial wall.

Inflammatory processes also increase oxidative stress, which can damage LDL particles and promote plaque formation.

Reducing systemic inflammation is therefore an important strategy in supporting cardiovascular health.

Oxidative Stress

Oxidative stress occurs when the body produces more reactive oxygen species than it can neutralise with antioxidant defences.

When LDL particles become oxidised, they are more likely to trigger inflammatory responses within the arterial wall. Oxidised LDL plays a central role in the development of atherosclerotic plaques.

Antioxidant support helps protect lipoproteins and vascular tissues from oxidative damage.

Physical Inactivity

Regular physical activity plays an important role in lipid metabolism. Exercise helps increase HDL cholesterol levels and improves the body’s ability to utilise fatty acids for energy.

Physical activity also improves insulin sensitivity and supports cardiovascular circulation.

Sedentary lifestyles may contribute to elevated triglycerides, reduced HDL levels and impaired metabolic function.

Smoking and Environmental Factors

Smoking introduces oxidative compounds into the bloodstream that can damage vascular tissues and oxidise LDL particles.

Exposure to environmental toxins may also place additional stress on liver detoxification pathways, affecting lipid metabolism and cardiovascular health.

Reducing exposure to toxins and supporting detoxification systems may assist in maintaining healthy cholesterol balance.

Summary of Major Cholesterol Risk Factors 

Practitioner Perspective

Cholesterol imbalance usually reflects broader metabolic disturbances rather than a single isolated problem. Supporting liver function, improving lipid transport, reducing oxidative stress and improving metabolic regulation can help restore healthier cholesterol balance over time.

By addressing multiple underlying risk factors simultaneously, a more comprehensive approach to cardiovascular health can be achieved.

Cholesterol Pathway in the Body

Cholesterol metabolism is a continuous physiological cycle involving several organs and biochemical systems. Cholesterol is produced in the liver, transported through the bloodstream to tissues where it is used for structural and metabolic purposes, and eventually returned to the liver for processing and elimination.

When this pathway functions efficiently, cholesterol levels remain balanced and excess cholesterol is removed from circulation. When one or more steps in this pathway become disrupted, cholesterol may accumulate in the bloodstream and contribute to cardiovascular disease.

The pathway can be understood through the following stages.

Complete Cholesterol Metabolism Pathway 

Where Cholesterol Imbalance Can Occur 

Several points in the cholesterol pathway may become disrupted.

Physiological Systems That Maintain Cholesterol Balance

Healthy cholesterol metabolism requires coordination between multiple organs and metabolic systems.

Summary of Cholesterol Regulation

Cholesterol balance depends on the coordinated function of several physiological processes. These include regulated cholesterol synthesis in the liver, efficient transport through lipoproteins, protection of blood vessels from oxidative damage, effective removal of excess cholesterol through HDL transport, and elimination through bile and digestion.

When these processes function normally, cholesterol is constantly recycled and excess lipids are removed from the body. Disruption of any part of this pathway can lead to lipid accumulation, vascular inflammation and increased cardiovascular risk.

Supporting liver metabolism, antioxidant protection, lipid transport and bile production helps maintain balanced cholesterol metabolism and cardiovascular health.

Advanced Cholesterol Particle Interpretation

 Standard cholesterol tests measure the amount of cholesterol carried within lipoproteins, but they do not always reveal the full picture of cardiovascular risk. The number of particles, their size, and whether they have undergone oxidative damage are often more important indicators of arterial health.

Cholesterol is transported through the bloodstream in lipoprotein particles. The structure, density and biochemical behaviour of these particles influence whether they contribute to arterial plaque formation or support healthy lipid metabolism.

Several additional markers provide deeper insight into cardiovascular risk.

LDL Particle Size and Density

LDL cholesterol particles are not all the same. Some LDL particles are larger and less dense, while others are smaller and denser. The smaller dense LDL particles are more likely to penetrate the lining of blood vessels and become trapped within the arterial wall.

These smaller particles are also more vulnerable to oxidative damage, which triggers inflammatory reactions within the artery wall. Once oxidised, LDL particles can initiate plaque formation.

Larger LDL particles are considered less harmful because they circulate more freely and are less likely to become lodged within arterial tissue.

Metabolic factors such as insulin resistance, high triglycerides and chronic inflammation often increase the proportion of small dense LDL particles.

Oxidised LDL

LDL cholesterol becomes particularly dangerous when it undergoes oxidative modification. Oxidised LDL forms when LDL particles are damaged by reactive oxygen species and inflammatory processes.

Once LDL becomes oxidised, it can trigger an immune response within the artery wall. Immune cells known as macrophages attempt to absorb the oxidised cholesterol, eventually forming foam cells. Foam cells accumulate in the arterial wall and contribute to plaque formation.

This process is a major contributor to atherosclerosis.

Antioxidant compounds in the formulation help protect LDL particles from oxidative damage.

Lipoprotein(a)

Lipoprotein(a), often abbreviated as Lp(a), is a specialised lipoprotein particle that contains an LDL molecule attached to a protein called apolipoprotein(a)

This particle behaves differently from normal LDL. Lipoprotein(a) can interfere with the body’s normal clot-dissolving mechanisms and may increase the tendency for plaque formation and thrombosis.

Levels of lipoprotein(a) are largely genetically determined and are not significantly affected by diet alone.

Apolipoprotein B and Particle Number

Apolipoprotein B is a protein found on LDL, VLDL and other atherogenic lipoproteins. Each LDL particle contains one molecule of apolipoprotein B, making ApoB a useful indicator of the number of cholesterol-carrying particles circulating in the blood.

A person may have normal LDL cholesterol levels but still have a high number of LDL particles. This increases the probability that cholesterol particles will enter the arterial wall.

Higher ApoB levels are often associated with increased cardiovascular risk even when total cholesterol appears normal.

Lipoprotein Balance and Cardiovascular Risk 

Cardiovascular risk is influenced not only by total cholesterol levels but by the overall balance between lipid transport systems, inflammatory activity and oxidative stress.

How the Formulation Supports Advanced Lipid Balance

The formulation supports multiple aspects of cholesterol metabolism and vascular health.

Practitioner Summary 

Cholesterol metabolism is a complex physiological system involving lipid transport, liver metabolism, vascular health and inflammatory regulation. While standard cholesterol measurements provide useful information, deeper analysis of lipoprotein particles, oxidative stress and inflammatory markers provides a more accurate assessment of cardiovascular risk.

Supporting liver metabolism, bile flow, antioxidant protection and vascular health simultaneously allows a more balanced approach to cholesterol management. Rather than suppressing cholesterol production alone, this approach supports the body’s natural regulatory systems and promotes long-term cardiovascular resilience.

Health Risks Associated with High Cholesterol 

Excessive LDL cholesterol may contribute to the development of cardiovascular disease through plaque formation in the arteries.

Potential health risks include:

• narrowing of arteries due to plaque formation
• coronary artery disease
• heart attacks
• stroke
• reduced circulation in the limbs
• increased inflammation within blood vessels

Chronic inflammation, oxidative stress, poor liver metabolism and insulin resistance can accelerate plaque formation and worsen cholesterol imbalance.

Health Risks Associated with Extremely Low Cholesterol 

Although high cholesterol receives most attention, extremely low cholesterol levels can also lead to health complications.

Cholesterol is required for multiple physiological functions. Very low levels may contribute to:

• impaired cell membrane integrity
• reduced hormone production
• decreased bile production affecting digestion of fats
• neurological disturbances because cholesterol is required for nerve insulation
• increased risk of certain types of haemorrhagic stroke

Maintaining balanced cholesterol levels is therefore more beneficial than excessively suppressing cholesterol production.

The Role of the Liver in Cholesterol Regulation 

The liver is the central organ responsible for regulating lipid metabolism.

Major liver functions include:

• synthesising cholesterol
• producing bile acids
• packaging cholesterol into lipoproteins
• removing LDL cholesterol from the bloodstream
• converting cholesterol into bile acids for elimination

When liver metabolism becomes impaired, cholesterol clearance may decline and lipid levels may rise.

The Gallbladder and Bile in Fat Metabolism 

The gallbladder stores bile produced by the liver. Bile contains bile acids, cholesterol, phospholipids and bilirubin.

When fatty food enters the small intestine, the gallbladder releases bile into the digestive tract. Bile emulsifies dietary fats, allowing digestive enzymes to break them down for absorption.

Proper bile production and bile flow are important for maintaining cholesterol balance. If bile becomes overly saturated with cholesterol, crystals may form and eventually develop into gallstones.

How This Formulation Supports Cholesterol Balance 

The formulation supports several physiological mechanisms involved in cholesterol metabolism.

These mechanisms work together to support balanced cholesterol metabolism and improved cardiovascular health.

Expected Physiological Effects When Using the Supplement 

As cholesterol metabolism improves and liver function is supported, individuals may begin to notice several changes in how they feel.

Individual responses may vary depending on metabolic health, diet, lifestyle and genetic factors.

Clinical Mechanism Table for the Cholesterol Formulation

How Improved Cholesterol Metabolism Affects How a Person Feels 

When cholesterol metabolism becomes more balanced, the benefits are not limited to laboratory blood markers. Because cholesterol metabolism is closely connected to liver function, circulation, bile production, cellular metabolism and inflammation, improvements in lipid metabolism can influence how a person feels physically and metabolically.

Many individuals with lipid imbalance also experience symptoms related to sluggish liver metabolism, poor fat digestion, reduced circulation and metabolic fatigue. When these physiological systems begin functioning more efficiently, patients often report gradual improvements in overall wellbeing.

Several biological processes contribute to these improvements.

Improved Liver Function and Detoxification 

The liver is responsible for producing cholesterol, regulating lipid metabolism and converting excess cholesterol into bile acids. When liver metabolism becomes more efficient, the body is better able to regulate cholesterol production and eliminate excess lipids through bile.

Improved liver function can also support detoxification pathways, allowing metabolic waste products and inflammatory molecules to be processed more effectively.

Individuals may experience improved digestion, reduced heaviness after fatty meals and a general sense of metabolic balance.

Improved Bile Production and Fat Digestion

Bile is produced by the liver and stored in the gallbladder. It contains bile acids that emulsify dietary fats and assist the body in absorbing fat-soluble nutrients.

When bile production and bile flow improve, fat digestion becomes more efficient. This reduces digestive discomfort and helps the body eliminate excess cholesterol through the digestive tract.

Improved bile flow may result in better digestion of fatty foods and less bloating after meals.

Reduced Vascular Inflammation 

Chronic inflammation within blood vessels is one of the major factors contributing to plaque formation in arteries. When inflammation decreases and oxidative stress is reduced, the vascular lining becomes healthier and more resilient.

This process helps improve the flexibility of blood vessels and supports normal blood flow to tissues and organs.

Improved vascular health can result in better circulation and increased tissue oxygenation.

Improved Circulation and Oxygen Delivery

As circulation improves and blood vessels become more flexible, tissues receive improved oxygen and nutrient delivery.

Improved circulation may lead to better physical stamina, improved warmth in the extremities and a general sense of improved energy levels.

Individuals who previously experienced cold hands and feet or reduced circulation may notice improvements as vascular health improves.

Improved Cellular Energy Metabolism 

Cholesterol metabolism is closely connected to mitochondrial function and fatty acid metabolism. When lipid metabolism becomes more efficient, cells are better able to utilise fats for energy production.

Improved mitochondrial function may result in increased physical energy and reduced fatigue.

This effect is particularly noticeable in individuals with metabolic syndrome, insulin resistance or poor lipid metabolism.

Timeline of Expected Physiological Changes 

The physiological effects of improved cholesterol metabolism usually occur gradually as metabolic processes adapt.

Individual responses vary depending on diet, lifestyle, metabolic health and genetic factors.

Signs That Cholesterol Metabolism Is Improving

As lipid metabolism and liver function improve, individuals may experience several positive physiological changes.

These changes reflect improvements in metabolic efficiency and cardiovascular support rather than immediate pharmaceutical suppression of cholesterol.

Long-Term Benefits of Balanced Cholesterol Metabolism 

Maintaining balanced cholesterol metabolism supports multiple systems within the body. Over time, improved lipid regulation may contribute to:

• healthier arterial structure
• improved circulation to vital organs
• improved metabolic resilience
• reduced oxidative stress in blood vessels
• improved liver function and fat metabolism

Supporting cholesterol metabolism therefore plays a role not only in cardiovascular health but also in overall metabolic wellbeing.

Master Mechanism Table – Cholesterol Regulation Systems

Summary of the Overall Physiological Effects

Overall Practitioner Interpretation 

This formulation supports cholesterol balance through multiple complementary mechanisms rather than relying on a single pathway. The formulation addresses cholesterol metabolism at several levels including liver regulation, lipid transport, arterial protection, bile elimination and metabolic balance.

By influencing these systems simultaneously, the formulation supports a gradual improvement in lipid metabolism, vascular health and metabolic efficiency. Individuals using the formulation may experience improved digestion of fats, better circulation, improved energy levels and long-term support for cardiovascular health.

Ingredients which are traditionally used for supporting Cholesterol

Technical info for Herbal Education purposes only!

• Alpha Lipoic Acid: Alpha lipoic acid is a mitochondrial antioxidant that participates in cellular energy metabolism within the liver, heart and vascular tissues. It improves fatty-acid oxidation within mitochondria and protects lipoproteins from oxidative damage. By reducing oxidative stress in vascular endothelial cells and improving hepatic lipid metabolism, alpha lipoic acid helps prevent oxidation of circulating low density lipoprotein particles and supports improved metabolic utilisation of fats.
• Amla: Amla contains emblicanin A and B, gallic acid and ellagic acid which act as potent polyphenolic antioxidants within the liver, vascular endothelium and circulating lipoproteins. These compounds improve reverse cholesterol transport by enhancing the ability of high density lipoprotein particles to remove excess cholesterol from tissues and arterial walls. Amla also protects blood vessels from oxidative damage while supporting hepatic regulation of lipid metabolism.
• Artichoke Leaf: Artichoke leaf contains cynarin and luteolin which strongly stimulate bile production in hepatocytes and improve bile flow from the gallbladder into the small intestine. Increased bile secretion assists the conversion of cholesterol into bile acids which are eliminated through digestion. This process reduces circulating cholesterol while supporting fat digestion, liver detoxification and efficient lipid metabolism.
• Ashwagandha: Ashwagandha contains withanolides that regulate stress responses through the hypothalamic-pituitary-adrenal axis and influence metabolic hormone balance. Chronic cortisol elevation can increase lipid production within the liver and worsen insulin resistance. By stabilising adrenal signalling and supporting metabolic resilience, ashwagandha indirectly improves lipid metabolism and supports healthier regulation of cholesterol production.
• Beetroot Powder: Beetroot provides dietary nitrates which are converted to nitric oxide in vascular endothelial cells. Nitric oxide relaxes blood vessels and improves circulation throughout the cardiovascular system. Improved endothelial function enhances oxygen delivery to tissues and reduces vascular resistance. This circulatory support helps maintain arterial flexibility and contributes to improved cardiovascular performance.
• Berberine Hydrochloride: Berberine activates AMP-activated protein kinase within liver and metabolic tissues. This enzyme system regulates lipid metabolism, glucose metabolism and cellular energy balance. Activation of this pathway reduces hepatic cholesterol synthesis while improving fatty acid oxidation in mitochondria. Berberine also improves insulin sensitivity and metabolic regulation, making it one of the most effective natural compounds for improving lipid balance.
• Burdock Root: Burdock root contains lignans such as arctiin and arctigenin that support hepatic detoxification pathways and improve bile production. By supporting the liver’s ability to process metabolic waste and regulate lipid metabolism, burdock assists in the elimination of excess cholesterol through bile secretion. Improved liver detoxification contributes to balanced lipid metabolism and improved digestive function.
• Cayenne Pepper: Cayenne pepper contains capsaicin which stimulates circulation and thermogenic metabolism. Capsaicin improves blood flow through dilation of peripheral blood vessels and enhances metabolic activity within tissues. Improved circulation allows better oxygen delivery and nutrient transport, supporting cardiovascular function and metabolic efficiency.
• Celery Seed: Celery seed contains phthalides and flavonoids that help regulate vascular tone within arterial smooth muscle tissue. These compounds support relaxation of blood vessels and improved blood flow. Improved vascular flexibility assists circulation and helps maintain healthy cardiovascular function.
• Cinnamon: Cinnamon contains cinnamaldehyde, procyanidins and polyphenolic compounds that influence glucose and lipid metabolism in the liver and pancreas. These compounds improve insulin sensitivity and reduce hepatic triglyceride production, which in turn lowers the formation of very low density lipoproteins that eventually become LDL particles. By stabilising blood sugar regulation and improving metabolic efficiency, cinnamon contributes to healthier lipid balance and reduced metabolic stress on the cardiovascular system.
• Citrus Bio-Flavonoids: Citrus bioflavonoids such as hesperidin, rutin and naringin act as potent antioxidants within vascular endothelial tissue and circulating lipoproteins. These flavonoids strengthen capillary walls and protect low density lipoprotein particles from oxidative modification, a key process involved in plaque formation. By stabilising vascular integrity and reducing oxidative stress within arterial walls, citrus bioflavonoids support healthier circulation and help maintain normal lipid transport within the bloodstream.
• Choline Bitartrate: Choline is an essential nutrient required for the synthesis of phosphatidylcholine, a major component of cell membranes and bile. In the liver, choline supports the formation of lipoproteins that transport fats out of hepatocytes, preventing the accumulation of lipids within liver tissue. Adequate choline levels support bile production, lipid transport and fat metabolism, making it a critical nutrient for maintaining healthy cholesterol regulation and preventing fatty liver development.
• Co-Enzyme Q10: Coenzyme Q10, also known as ubiquinone, is a vital component of the mitochondrial electron transport chain responsible for cellular energy production. High concentrations are found in cardiac muscle, liver tissue and vascular endothelium where metabolic demand is high. Coenzyme Q10 supports mitochondrial ATP production while acting as an antioxidant that protects lipoproteins and vascular tissues from oxidative damage. This dual function supports cardiovascular energy metabolism and helps maintain healthy circulation.
• Dandelion Root: Dandelion root contains sesquiterpene lactones and bitter compounds that stimulate digestive secretions and support liver function. These compounds promote bile production in hepatocytes and assist the gallbladder in releasing bile into the digestive tract. Improved bile flow helps convert cholesterol into bile acids, allowing excess cholesterol to be eliminated through digestion. This process supports balanced lipid metabolism and improved fat digestion.
• Fenugreek Seed: Fenugreek seeds contain soluble fibres, steroidal saponins and diosgenin which influence lipid metabolism within the digestive tract and liver. The soluble fibre content binds bile acids and cholesterol within the intestine, reducing their reabsorption into the bloodstream. This process forces the liver to utilise circulating cholesterol to produce new bile acids, thereby helping reduce cholesterol levels and supporting improved lipid regulation.
• Flaxseed: Flaxseed contains alpha-linolenic acid, lignans and soluble fibre which contribute to cardiovascular protection and lipid regulation. The soluble fibre fraction binds bile acids within the intestine and promotes their elimination through the digestive tract. This process reduces cholesterol reabsorption and assists the liver in maintaining lipid balance. In addition, lignans and omega fatty acids support anti-inflammatory activity within vascular tissues.
• Garlic: Garlic contains sulfur compounds including allicin and diallyl sulfides which influence lipid metabolism within hepatocytes and vascular tissues. These compounds help regulate enzymes involved in cholesterol synthesis while supporting antioxidant protection within the bloodstream. Garlic also improves vascular function by supporting nitric oxide signalling within endothelial cells, helping maintain arterial flexibility and healthy circulation.
• Ginger: Ginger contains gingerols and shogaols which exhibit anti-inflammatory and antioxidant activity within cardiovascular and digestive tissues. These compounds support circulation by promoting vasodilation and improving blood flow through peripheral vessels. Ginger also supports digestive activity and bile secretion, assisting lipid metabolism and contributing to balanced cholesterol regulation within the body.
• Ginseng Root Siberian: Siberian ginseng contains eleutherosides that support metabolic resilience and cardiovascular regulation through effects on the endocrine and nervous systems. These compounds help the body adapt to physiological stress and support improved circulation and oxygen delivery to tissues. By improving metabolic efficiency and supporting cardiovascular endurance, Siberian ginseng contributes to healthier lipid metabolism and supports the body’s ability to maintain balanced cholesterol levels.
• Glycine: Glycine is a simple amino acid that participates in several important metabolic pathways within the liver and digestive system. It is required for the synthesis of bile acids, which are produced in hepatocytes and released into the digestive tract to assist fat digestion. Adequate glycine levels support bile formation and cholesterol elimination through bile secretion, helping the liver regulate lipid metabolism while supporting detoxification pathways.
• Grape Seed Extract: Grape seed extract contains oligomeric proanthocyanidins, powerful polyphenolic antioxidants that protect vascular endothelial tissue and circulating lipoproteins. These compounds help prevent oxidative damage to low density lipoprotein particles, reducing the risk of plaque formation in arterial walls. Grape seed extract also strengthens capillary integrity and supports healthy circulation, contributing to long-term cardiovascular protection.
• Green Tea: Green tea contains catechins such as epigallocatechin gallate which influence lipid metabolism within liver cells and digestive tissues. Catechins reduce intestinal absorption of dietary cholesterol and support hepatic lipid metabolism. These compounds also provide antioxidant protection within vascular tissues, helping reduce oxidative stress and supporting healthy blood vessel function.
• Guggul Lipid: Guggul lipid contains guggulsterones which influence cholesterol metabolism within hepatocytes by interacting with nuclear receptors involved in lipid regulation. These compounds help regulate the balance between cholesterol synthesis and elimination. Guggul lipid has traditionally been used to support healthy lipid metabolism and assist the body in maintaining balanced cholesterol levels through improved liver function.
• Hawthorn Berries: Hawthorn berries contain flavonoids and oligomeric procyanidins that support cardiovascular circulation and strengthen cardiac muscle function. These compounds improve coronary blood flow and support the elasticity of blood vessels. By enhancing vascular circulation and protecting endothelial tissue from oxidative damage, hawthorn contributes to improved cardiovascular performance and healthy lipid transport.
• Inositol: Inositol is a vitamin-like compound involved in cellular signalling pathways that regulate lipid and glucose metabolism. It plays an important role in cell membrane structure and participates in metabolic processes within the liver and metabolic tissues. Inositol helps support healthy fat metabolism and assists in maintaining balanced lipid levels in circulation.
• L-Arginine: L-arginine is an amino acid that serves as a precursor for nitric oxide production within endothelial cells lining blood vessels. Nitric oxide relaxes smooth muscle within the vascular wall, allowing improved blood flow and reduced vascular resistance. Enhanced circulation improves oxygen delivery to tissues and supports cardiovascular function while contributing to healthy arterial flexibility.
• L-Carnitine: L-carnitine is an essential nutrient for fatty acid metabolism within mitochondria. It transports long-chain fatty acids into the mitochondrial matrix where they are oxidised to produce energy. This process allows the body to utilise fats efficiently rather than allowing them to accumulate within circulation. Improved fatty acid metabolism supports lipid balance and overall metabolic efficiency.
• Lecithin Sunflower: Lecithin derived from sunflower seeds is rich in phosphatidylcholine and other phospholipids that are fundamental components of cellular membranes and bile. Within the liver, phosphatidylcholine supports the formation of lipoproteins responsible for transporting fats out of hepatocytes and into circulation for metabolic use. Adequate lecithin levels help prevent the accumulation of lipids within liver tissue and assist the formation of bile required for cholesterol elimination through digestion.
• L-Methionine: L-methionine is a sulfur-containing amino acid that participates in methylation reactions essential for liver metabolism and detoxification. Within hepatocytes it contributes to the synthesis of important compounds such as glutathione and phosphatidylcholine, both of which support lipid metabolism and cellular protection. Methionine assists in the regulation of fat metabolism within the liver and supports the conversion of cholesterol into bile acids, contributing to improved cholesterol balance.
• Magnesium Bisglycinate: Magnesium is a mineral cofactor involved in hundreds of enzymatic reactions throughout the body, including those regulating lipid metabolism and energy production. Within metabolic tissues and the cardiovascular system, magnesium helps maintain normal vascular tone, supports mitochondrial energy production and assists metabolic enzyme activity. Adequate magnesium levels contribute to improved metabolic stability and support cardiovascular function.
• Maitake Mushrooms: Maitake mushrooms contain beta glucans and polysaccharides that influence immune regulation and metabolic balance. These compounds interact with immune receptors and help regulate inflammatory processes that can affect cardiovascular and metabolic health. Maitake also supports metabolic efficiency and may contribute to improved lipid metabolism through its effects on glucose and insulin regulation.
• Milk Thistle: Milk thistle contains silymarin, a complex of flavonolignans that protect liver cells from oxidative stress and support liver regeneration. Within hepatocytes, silymarin stabilises cell membranes and enhances detoxification pathways while supporting bile production. Because the liver is central to cholesterol metabolism, maintaining healthy liver function with milk thistle supports balanced lipid metabolism and efficient cholesterol processing.
• Moringa: Moringa leaves contain polyphenols, chlorogenic acid and essential micronutrients that support metabolic and antioxidant activity throughout the body. These compounds influence glucose metabolism and lipid regulation within metabolic tissues. By supporting antioxidant protection and metabolic balance, moringa contributes to healthier lipid metabolism and improved cardiovascular resilience.
• N-Acetyl L-Cysteine: N-acetyl L-cysteine is a precursor to glutathione, one of the body’s most important intracellular antioxidants. Within liver cells it supports detoxification pathways and protects cellular structures from oxidative damage. Adequate glutathione production assists the liver in managing metabolic stress and maintaining healthy lipid metabolism while supporting the elimination of toxins and metabolic byproducts.
• Pine Bark Extract 4:1: Pine bark extract contains oligomeric proanthocyanidins, highly potent polyphenolic compounds that protect vascular tissues from oxidative stress. These compounds stabilize collagen within blood vessel walls and protect endothelial cells that regulate vascular tone and blood flow. Pine bark extract also improves microcirculation and helps prevent oxidative modification of circulating lipoproteins, reducing the likelihood of plaque formation within arterial walls and supporting long-term cardiovascular health.
• Potassium Glycinate: Potassium is an essential electrolyte that plays an important role in cardiovascular function, nerve conduction, and fluid balance within the body. Adequate potassium levels support healthy electrical signalling in cardiac muscle and help regulate vascular tone. Potassium also contributes to maintaining proper fluid balance between cells and blood plasma, helping to support healthy blood pressure regulation and cardiovascular stability.
• Psyllium Seed: Psyllium seed contains soluble fibre that forms a gel-like structure within the digestive tract. This fibre binds bile acids within the intestine, preventing their reabsorption and encouraging their excretion through the stool. Because bile acids are produced from cholesterol in the liver, increased bile excretion stimulates the liver to utilise circulating cholesterol to produce new bile acids, thereby contributing to improved cholesterol balance.
• Red Yeast Rice: Red yeast rice contains naturally occurring monacolins which influence the enzymatic pathway responsible for cholesterol synthesis in the liver. These compounds help regulate the production of cholesterol through modulation of the mevalonate pathway within hepatocytes. By reducing excessive cholesterol synthesis while supporting normal metabolic regulation, red yeast rice contributes to balanced cholesterol levels and improved cardiovascular health.
• Rhodiola Rosea: Rhodiola rosea contains rosavins and salidrosides that support adaptive responses within the endocrine and nervous systems. These compounds help regulate the body’s stress response through effects on the hypothalamic-pituitary-adrenal axis. By improving resilience to physiological stress and supporting metabolic balance, rhodiola indirectly supports cardiovascular function and healthy metabolic regulation.
• Rutin: Rutin is a bioflavonoid found in many plants that strengthens capillary walls and protects blood vessels from oxidative damage. It helps stabilise collagen within vascular tissues and supports the elasticity of blood vessels. Rutin also improves microcirculation and protects endothelial cells from inflammatory damage, supporting overall cardiovascular integrity.
• Taurine: Taurine is an amino acid involved in several metabolic processes, particularly within the cardiovascular and nervous systems. It contributes to bile salt formation in the liver and assists in lipid digestion and cholesterol metabolism. Taurine also supports healthy cardiac function, regulates calcium balance within heart muscle cells and contributes to improved cardiovascular stability.
• Trans Resveratrol: Trans resveratrol is a polyphenolic compound found in grapes and certain plants that supports cardiovascular health through antioxidant and anti-inflammatory mechanisms. It influences cellular signalling pathways that regulate oxidative stress and endothelial function. Resveratrol helps protect blood vessels, supports healthy circulation and contributes to improved lipid metabolism.
• Turmeric: Turmeric contains curcuminoids, primarily curcumin, which possess strong antioxidant and anti-inflammatory properties. These compounds support liver function, regulate inflammatory pathways and contribute to improved metabolic balance. Curcumin also supports healthy circulation and protects vascular tissues from oxidative damage associated with lipid oxidation.
• Vitamin B12: Vitamin B12 plays a critical role in cellular metabolism, red blood cell formation and neurological function. Within metabolic tissues it supports methylation reactions and assists in the metabolism of homocysteine, an amino acid associated with cardiovascular risk when elevated. Adequate B12 levels support proper nerve function, healthy blood cell formation and metabolic energy production.
• Vitamin B3 (Nicotinamide): Vitamin B3 is a water-soluble vitamin involved in cellular energy metabolism. It forms part of coenzymes NAD and NADP which participate in hundreds of enzymatic reactions within the body. These coenzymes are essential for the conversion of nutrients into cellular energy and support metabolic processes within the liver and other tissues responsible for lipid metabolism.
• Vitamin B5 (Calcium D-Pantothenate): Vitamin B5 is a precursor to coenzyme A, a molecule essential for the metabolism of carbohydrates, proteins and fats. Coenzyme A plays a central role in the formation and breakdown of fatty acids and contributes to the synthesis of important molecules such as steroid hormones and acetylcholine. Adequate vitamin B5 levels support metabolic efficiency and cellular energy production.
• Vitamin D3 (Cholecalciferol): Vitamin D3 is a fat-soluble vitamin involved in calcium metabolism, immune regulation and cellular signalling. It interacts with vitamin D receptors located throughout the body, including immune cells, bone tissue and cardiovascular tissues. Vitamin D contributes to maintaining healthy immune responses and supports overall metabolic balance.
• Vitamin K2: Vitamin K2 plays an important role in calcium metabolism and cardiovascular health. It activates proteins that help regulate calcium distribution within the body, directing calcium toward bones and away from soft tissues and blood vessels. This function supports the maintenance of healthy vascular tissues and contributes to cardiovascular stability.
• Wild Chicory Root: Chicory root contains inulin, a prebiotic fibre that supports beneficial gut bacteria and digestive health. These fibres promote a healthy intestinal environment and assist in maintaining balanced digestion. Healthy gut microbiota contribute to metabolic regulation and support overall digestive efficiency.
• Yeast Beta Glucans: Beta glucans derived from yeast are biologically active polysaccharides that interact with immune receptors within the intestinal and immune systems. These compounds support immune modulation and enhance the body’s natural defence mechanisms. Beta glucans also contribute to metabolic balance by influencing immune signalling pathways associated with metabolic regulation.