Guide How AAS positively induces cellular & mitochondrial damage through oxidative stress and how we can mitigate it [HIGH IQ GTFIH] (6 Viewers)

[looksmin]

How AAS induces cellular and mitochondrial damage through oxidative stress and how we can mitigate it​

Solution; Antioxidants
GTFIH


How does AAS Cause Oxidative Stress?​

AAS increase mitochondrial activity and oxygen metabolism. This, in return, increases the amount of reactive oxygen species (ROS) in cells and mitochondria.

The excessive amount of ROS depletes the body's natural antioxidant defenses like glutathione, GPx, SOD, and catalase. This causes damage to cellular components and is called oxidative stress.​

How does oxidative stress damage the body?​

Excessive amounts of ROS and a depleted endogenous antioxidant system damage important cellular components such as DNA, proteins, lipids, and mitochondria.

Damaging the mitochondria creates a cycle of oxidative stress through reducing ATP (energy), which further increases ROS production.

Over time, oxidative stress leads to inflammation, cellular aging, cell death, and tissue damage, which in turn can contribute to heart, liver, kidney, and neurological damage.​

How can oxidative stress be mitigated?​

We can reduce the body's oxidative stress by supporting endogenous antioxidant defenses and increasing antioxidant availability through supplementation.

The body naturally attempts to neutralize ROS through its endogenous antioxidant systems, including glutathione, SOD, and other antioxidant enzymes. We can further improve redox balance and help neutralize ROS through antioxidants such as NACET, PQQ, and astaxanthin. These compounds help scavenge free radicals and support cellular redox balance.

Now, how and which antioxidants should we utilize for optimal redox balance?​

NACET (N-acetylcysteine ethyl ester)​

We can utilize NACET to help reduce oxidative stress because it is a highly bioavailable cysteine precursor, similar to NAC but with an ethyl ester group. The ethyl ester group is beneficial because it makes NACET more lipophilic than NAC, allowing it to cross cell membranes more efficiently. It also improves overall bioavailability.

Since NACET is a cysteine precursor, it promotes intracellular glutathione synthesis, meaning it strengthens the body's endogenous antioxidant system. By increasing glutathione levels, we improve the body's ability to neutralize ROS, thereby helping mitigate oxidative stress and protect cells from oxidative damage.

NACET is particularly unique for its enhanced cellular permeability, which may support improved redox balance compared to NAC, especially within the brain and mitochondria. Because of these properties, NACET is often considered a promising neuroprotective antioxidant and may be beneficial in situations associated with elevated oxidative stress, including AAS use.​

Melatonin​

Melatonin is a potent endogenous antioxidant with important protective mitochondrial properties. Unlike many antioxidants, but similar to NACET, melatonin can easily cross cell membranes. As discussed earlier, this may contribute to improved redox balance by increasing the availability of antioxidants within cells, where they can help counteract ROS.

Melatonin may help mitigate oxidative stress by scavenging free radicals. Experimental studies have also shown that melatonin can support endogenous antioxidant systems by increasing the activity or expression of enzymes such as GPx, SOD, and catalase.

Similar to NACET, melatonin is often considered a valuable antioxidant due to its high mitochondrial permeability and its ability to support the body's endogenous antioxidant defenses. These properties may contribute to neuroprotective and cytoprotective effects, particularly during periods of elevated oxidative stress.​

Glutathione​

We can also utilize glutathione, the body's primary endogenous antioxidant, to help reduce oxidative stress. Glutathione plays a central role in maintaining redox balance by neutralizing ROS and supporting cellular antioxidant defenses.

Injectable glutathione can be beneficial because it directly increases circulating glutathione levels, bypassing digestive degradation. This may temporarily enhance detoxification processes and improve redox balance, helping counteract oxidative stress.

However, there are several caveats when it comes to injectable glutathione. Glutathione does not reliably increase mitochondrial glutathione levels and primarily elevates systemic glutathione. Because glutathione (GSH) is a relatively large tripeptide, it is not transported across cell membranes as efficiently as smaller, more permeable compounds.

Additionally, injectable glutathione generally provides only a temporary increase in glutathione levels. In contrast, compounds such as NACET and melatonin may support antioxidant defenses by promoting endogenous antioxidant activity and improving cellular redox balance. As a result, these compounds are often considered more reliable for long-term support of the body's antioxidant systems.​

Astaxanthin​

Astaxanthin is a lipid-soluble carotenoid with a high ability to cross cellular and mitochondrial membranes, where it may help protect against oxidative stress by neutralizing ROS.

Due to its unique molecular structure, astaxanthin can span the lipid bilayer, allowing it to help neutralize ROS on both the inner and outer surfaces of cell membranes. This characteristic makes astaxanthin particularly beneficial for protecting against lipid peroxidation.

In short, astaxanthin helps protect cell membrane lipids from oxidative damage, supports mitochondrial function, and may help preserve cellular integrity by reducing oxidative stress–induced damage to cellular structures.​

CoQ10 + PQQ​

CoQ10 is a lipid-soluble antioxidant located within the mitochondrial membrane, where it plays a critical role in ATP production. In addition to supporting cellular energy generation, CoQ10 may help reduce ROS formation by limiting electron leakage during mitochondrial respiration.

PQQ (pyrroloquinoline quinone) is a redox-active compound, meaning it can readily donate and accept electrons. Through these redox properties, PQQ may help neutralize ROS and support cellular antioxidant defenses. PQQ has also been shown to support mitochondrial biogenesis and cellular energy metabolism, which may contribute to improved mitochondrial function.

PQQ may further help reduce oxidative stress through redox cycling and the activation of antioxidant signaling pathways.

Together, CoQ10 and PQQ provide complementary support for mitochondrial health. CoQ10 helps improve the efficiency of mitochondrial energy production and may reduce ROS generation by limiting electron leakage, while PQQ supports the formation of new mitochondria and promotes healthy mitochondrial function. As a result, this combination may help improve cellular energy production and resilience against oxidative stress.​

Sulforaphane​

Sulforaphane activates Nrf2, a key regulator of the body's endogenous antioxidant defense systems.

Activation of the Nrf2 pathway increases the expression of multiple antioxidant enzymes and protective cellular mechanisms, including glutathione-related enzymes, SOD, catalase, and various phase II detoxification enzymes. This, in turn, enhances the body's ability to respond to oxidative stress through stronger endogenous antioxidant defenses.

By supporting the Nrf2 pathway, sulforaphane helps improve cellular resilience against oxidative damage and promotes a more favorable redox balance. This indirect antioxidant mechanism is unique because, rather than primarily scavenging ROS itself, sulforaphane works by strengthening the body's own antioxidant and detoxification systems.​

Problem with Antioxidants​

While antioxidants can reduce oxidative stress and improve redox balance, excessive supplementation may disrupt normal physiological redox signaling.

ROS are not exclusively harmful molecules; they also serve important roles in cellular signaling, adaptation, immune function, and mitochondrial regulation. When antioxidant intake becomes excessive, these beneficial signaling pathways may be suppressed.

At higher concentrations, certain antioxidants may also exhibit pro-oxidant effects under specific conditions, potentially contributing to oxidative imbalance rather than reducing it.

For this reason, antioxidant supplementation should be approached strategically rather than indiscriminately. The goal is not to eliminate ROS entirely, but to maintain a healthy redox balance. Antioxidants are generally most beneficial when used appropriately in response to increased oxidative stress, such as during demanding training periods or other situations associated with elevated ROS production.
​

Summary​

AAS use can increase oxidative stress, which may contribute to cellular damage, mitochondrial dysfunction, inflammation, and other downstream effects associated with prolonged oxidative imbalance.

We can help mitigate oxidative stress by utilizing an antioxidant-focused protocol that supports both direct antioxidant activity and the body's endogenous antioxidant defense systems.

However, it is important to respect the potential risks of excessive antioxidant use. The goal is to optimize redox balance, not eliminate ROS entirely, as ROS also play important physiological roles in cellular signaling and adaptation.

Example of a comprehensive antioxidant protocol (not a recommendation — provided for educational purposes only):
​

• 100–200 mg NACET​
• 50 mg+ melatonin​
• 12–24 mg astaxanthin​
• 250 mg CoQ10​
• 20–40 mg PQQ​
• 15–30 mg sulforaphane​

Additional compounds sometimes utilized for antioxidant support include glutathione, vitamin E, vitamin C, curcumin (turmeric extract), and other antioxidant agents.

Ultimately, the most effective approach is to tailor antioxidant support to the individual's level of oxidative stress rather than assuming that more antioxidants will always produce better outcomes. Maintaining an appropriate redox balance is generally more important than maximizing antioxidant intake.


If you have came this far and either dnr or read it all please rep, it took me 2 days to make.​

 

[callidus]

How AAS induces cellular and mitochondrial damage through oxidative stress and how we can mitigate it​

Solution; Antioxidants​

GTFIH​

​

​

How does AAS Cause Oxidative Stress?​

AAS increase mitochondrial activity and oxygen metabolism. This, in return, increases the amount of reactive oxygen species (ROS) in cells and mitochondria.

The excessive amount of ROS depletes the body's natural antioxidant defenses like glutathione, GPx, SOD, and catalase. This causes damage to cellular components and is called oxidative stress.​

How does oxidative stress damage the body?​

Excessive amounts of ROS and a depleted endogenous antioxidant system damage important cellular components such as DNA, proteins, lipids, and mitochondria.

Damaging the mitochondria creates a cycle of oxidative stress through reducing ATP (energy), which further increases ROS production.

Over time, oxidative stress leads to inflammation, cellular aging, cell death, and tissue damage, which in turn can contribute to heart, liver, kidney, and neurological damage.​

How can oxidative stress be mitigated?​

We can reduce the body's oxidative stress by supporting endogenous antioxidant defenses and increasing antioxidant availability through supplementation.

The body naturally attempts to neutralize ROS through its endogenous antioxidant systems, including glutathione, SOD, and other antioxidant enzymes. We can further improve redox balance and help neutralize ROS through antioxidants such as NACET, PQQ, and astaxanthin. These compounds help scavenge free radicals and support cellular redox balance.

Now, how and which antioxidants should we utilize for optimal redox balance?​

NACET (N-acetylcysteine ethyl ester)​

We can utilize NACET to help reduce oxidative stress because it is a highly bioavailable cysteine precursor, similar to NAC but with an ethyl ester group. The ethyl ester group is beneficial because it makes NACET more lipophilic than NAC, allowing it to cross cell membranes more efficiently. It also improves overall bioavailability.

Since NACET is a cysteine precursor, it promotes intracellular glutathione synthesis, meaning it strengthens the body's endogenous antioxidant system. By increasing glutathione levels, we improve the body's ability to neutralize ROS, thereby helping mitigate oxidative stress and protect cells from oxidative damage.

NACET is particularly unique for its enhanced cellular permeability, which may support improved redox balance compared to NAC, especially within the brain and mitochondria. Because of these properties, NACET is often considered a promising neuroprotective antioxidant and may be beneficial in situations associated with elevated oxidative stress, including AAS use.​

Melatonin​

Melatonin is a potent endogenous antioxidant with important protective mitochondrial properties. Unlike many antioxidants, but similar to NACET, melatonin can easily cross cell membranes. As discussed earlier, this may contribute to improved redox balance by increasing the availability of antioxidants within cells, where they can help counteract ROS.

Melatonin may help mitigate oxidative stress by scavenging free radicals. Experimental studies have also shown that melatonin can support endogenous antioxidant systems by increasing the activity or expression of enzymes such as GPx, SOD, and catalase.

Similar to NACET, melatonin is often considered a valuable antioxidant due to its high mitochondrial permeability and its ability to support the body's endogenous antioxidant defenses. These properties may contribute to neuroprotective and cytoprotective effects, particularly during periods of elevated oxidative stress.​

Glutathione​

We can also utilize glutathione, the body's primary endogenous antioxidant, to help reduce oxidative stress. Glutathione plays a central role in maintaining redox balance by neutralizing ROS and supporting cellular antioxidant defenses.

Injectable glutathione can be beneficial because it directly increases circulating glutathione levels, bypassing digestive degradation. This may temporarily enhance detoxification processes and improve redox balance, helping counteract oxidative stress.

However, there are several caveats when it comes to injectable glutathione. Glutathione does not reliably increase mitochondrial glutathione levels and primarily elevates systemic glutathione. Because glutathione (GSH) is a relatively large tripeptide, it is not transported across cell membranes as efficiently as smaller, more permeable compounds.

Additionally, injectable glutathione generally provides only a temporary increase in glutathione levels. In contrast, compounds such as NACET and melatonin may support antioxidant defenses by promoting endogenous antioxidant activity and improving cellular redox balance. As a result, these compounds are often considered more reliable for long-term support of the body's antioxidant systems.​

Astaxanthin​

Astaxanthin is a lipid-soluble carotenoid with a high ability to cross cellular and mitochondrial membranes, where it may help protect against oxidative stress by neutralizing ROS.

Due to its unique molecular structure, astaxanthin can span the lipid bilayer, allowing it to help neutralize ROS on both the inner and outer surfaces of cell membranes. This characteristic makes astaxanthin particularly beneficial for protecting against lipid peroxidation.

In short, astaxanthin helps protect cell membrane lipids from oxidative damage, supports mitochondrial function, and may help preserve cellular integrity by reducing oxidative stress–induced damage to cellular structures.​

CoQ10 + PQQ​

CoQ10 is a lipid-soluble antioxidant located within the mitochondrial membrane, where it plays a critical role in ATP production. In addition to supporting cellular energy generation, CoQ10 may help reduce ROS formation by limiting electron leakage during mitochondrial respiration.

PQQ (pyrroloquinoline quinone) is a redox-active compound, meaning it can readily donate and accept electrons. Through these redox properties, PQQ may help neutralize ROS and support cellular antioxidant defenses. PQQ has also been shown to support mitochondrial biogenesis and cellular energy metabolism, which may contribute to improved mitochondrial function.

PQQ may further help reduce oxidative stress through redox cycling and the activation of antioxidant signaling pathways.

Together, CoQ10 and PQQ provide complementary support for mitochondrial health. CoQ10 helps improve the efficiency of mitochondrial energy production and may reduce ROS generation by limiting electron leakage, while PQQ supports the formation of new mitochondria and promotes healthy mitochondrial function. As a result, this combination may help improve cellular energy production and resilience against oxidative stress.​

Sulforaphane​

Sulforaphane activates Nrf2, a key regulator of the body's endogenous antioxidant defense systems.

Activation of the Nrf2 pathway increases the expression of multiple antioxidant enzymes and protective cellular mechanisms, including glutathione-related enzymes, SOD, catalase, and various phase II detoxification enzymes. This, in turn, enhances the body's ability to respond to oxidative stress through stronger endogenous antioxidant defenses.

By supporting the Nrf2 pathway, sulforaphane helps improve cellular resilience against oxidative damage and promotes a more favorable redox balance. This indirect antioxidant mechanism is unique because, rather than primarily scavenging ROS itself, sulforaphane works by strengthening the body's own antioxidant and detoxification systems.​

Problem with Antioxidants​

While antioxidants can reduce oxidative stress and improve redox balance, excessive supplementation may disrupt normal physiological redox signaling.

ROS are not exclusively harmful molecules; they also serve important roles in cellular signaling, adaptation, immune function, and mitochondrial regulation. When antioxidant intake becomes excessive, these beneficial signaling pathways may be suppressed.

At higher concentrations, certain antioxidants may also exhibit pro-oxidant effects under specific conditions, potentially contributing to oxidative imbalance rather than reducing it.

For this reason, antioxidant supplementation should be approached strategically rather than indiscriminately. The goal is not to eliminate ROS entirely, but to maintain a healthy redox balance. Antioxidants are generally most beneficial when used appropriately in response to increased oxidative stress, such as during demanding training periods or other situations associated with elevated ROS production.
​

Summary​

AAS use can increase oxidative stress, which may contribute to cellular damage, mitochondrial dysfunction, inflammation, and other downstream effects associated with prolonged oxidative imbalance.

We can help mitigate oxidative stress by utilizing an antioxidant-focused protocol that supports both direct antioxidant activity and the body's endogenous antioxidant defense systems.

However, it is important to respect the potential risks of excessive antioxidant use. The goal is to optimize redox balance, not eliminate ROS entirely, as ROS also play important physiological roles in cellular signaling and adaptation.

Example of a comprehensive antioxidant protocol (not a recommendation — provided for educational purposes only):
​

• 100–200 mg NACET​
• 50 mg+ melatonin​
• 12–24 mg astaxanthin​
• 250 mg CoQ10​
• 20–40 mg PQQ​
• 15–30 mg sulforaphane​

Additional compounds sometimes utilized for antioxidant support include glutathione, vitamin E, vitamin C, curcumin (turmeric extract), and other antioxidant agents.

Ultimately, the most effective approach is to tailor antioxidant support to the individual's level of oxidative stress rather than assuming that more antioxidants will always produce better outcomes. Maintaining an appropriate redox balance is generally more important than maximizing antioxidant intake.


If you have came this far and either dnr or read it all please rep, it took me 2 days to make.​

mirin the effort

 

[sneakyalex7]

How AAS induces cellular and mitochondrial damage through oxidative stress and how we can mitigate it​

Solution; Antioxidants​

GTFIH​

​

​

How does AAS Cause Oxidative Stress?​

AAS increase mitochondrial activity and oxygen metabolism. This, in return, increases the amount of reactive oxygen species (ROS) in cells and mitochondria.

The excessive amount of ROS depletes the body's natural antioxidant defenses like glutathione, GPx, SOD, and catalase. This causes damage to cellular components and is called oxidative stress.​

How does oxidative stress damage the body?​

Excessive amounts of ROS and a depleted endogenous antioxidant system damage important cellular components such as DNA, proteins, lipids, and mitochondria.

Damaging the mitochondria creates a cycle of oxidative stress through reducing ATP (energy), which further increases ROS production.

Over time, oxidative stress leads to inflammation, cellular aging, cell death, and tissue damage, which in turn can contribute to heart, liver, kidney, and neurological damage.​

How can oxidative stress be mitigated?​

We can reduce the body's oxidative stress by supporting endogenous antioxidant defenses and increasing antioxidant availability through supplementation.

The body naturally attempts to neutralize ROS through its endogenous antioxidant systems, including glutathione, SOD, and other antioxidant enzymes. We can further improve redox balance and help neutralize ROS through antioxidants such as NACET, PQQ, and astaxanthin. These compounds help scavenge free radicals and support cellular redox balance.

Now, how and which antioxidants should we utilize for optimal redox balance?​

NACET (N-acetylcysteine ethyl ester)​

We can utilize NACET to help reduce oxidative stress because it is a highly bioavailable cysteine precursor, similar to NAC but with an ethyl ester group. The ethyl ester group is beneficial because it makes NACET more lipophilic than NAC, allowing it to cross cell membranes more efficiently. It also improves overall bioavailability.

Since NACET is a cysteine precursor, it promotes intracellular glutathione synthesis, meaning it strengthens the body's endogenous antioxidant system. By increasing glutathione levels, we improve the body's ability to neutralize ROS, thereby helping mitigate oxidative stress and protect cells from oxidative damage.

NACET is particularly unique for its enhanced cellular permeability, which may support improved redox balance compared to NAC, especially within the brain and mitochondria. Because of these properties, NACET is often considered a promising neuroprotective antioxidant and may be beneficial in situations associated with elevated oxidative stress, including AAS use.​

Melatonin​

Melatonin is a potent endogenous antioxidant with important protective mitochondrial properties. Unlike many antioxidants, but similar to NACET, melatonin can easily cross cell membranes. As discussed earlier, this may contribute to improved redox balance by increasing the availability of antioxidants within cells, where they can help counteract ROS.

Melatonin may help mitigate oxidative stress by scavenging free radicals. Experimental studies have also shown that melatonin can support endogenous antioxidant systems by increasing the activity or expression of enzymes such as GPx, SOD, and catalase.

Similar to NACET, melatonin is often considered a valuable antioxidant due to its high mitochondrial permeability and its ability to support the body's endogenous antioxidant defenses. These properties may contribute to neuroprotective and cytoprotective effects, particularly during periods of elevated oxidative stress.​

Glutathione​

We can also utilize glutathione, the body's primary endogenous antioxidant, to help reduce oxidative stress. Glutathione plays a central role in maintaining redox balance by neutralizing ROS and supporting cellular antioxidant defenses.

Injectable glutathione can be beneficial because it directly increases circulating glutathione levels, bypassing digestive degradation. This may temporarily enhance detoxification processes and improve redox balance, helping counteract oxidative stress.

However, there are several caveats when it comes to injectable glutathione. Glutathione does not reliably increase mitochondrial glutathione levels and primarily elevates systemic glutathione. Because glutathione (GSH) is a relatively large tripeptide, it is not transported across cell membranes as efficiently as smaller, more permeable compounds.

Additionally, injectable glutathione generally provides only a temporary increase in glutathione levels. In contrast, compounds such as NACET and melatonin may support antioxidant defenses by promoting endogenous antioxidant activity and improving cellular redox balance. As a result, these compounds are often considered more reliable for long-term support of the body's antioxidant systems.​

Astaxanthin​

Astaxanthin is a lipid-soluble carotenoid with a high ability to cross cellular and mitochondrial membranes, where it may help protect against oxidative stress by neutralizing ROS.

Due to its unique molecular structure, astaxanthin can span the lipid bilayer, allowing it to help neutralize ROS on both the inner and outer surfaces of cell membranes. This characteristic makes astaxanthin particularly beneficial for protecting against lipid peroxidation.

In short, astaxanthin helps protect cell membrane lipids from oxidative damage, supports mitochondrial function, and may help preserve cellular integrity by reducing oxidative stress–induced damage to cellular structures.​

CoQ10 + PQQ​

CoQ10 is a lipid-soluble antioxidant located within the mitochondrial membrane, where it plays a critical role in ATP production. In addition to supporting cellular energy generation, CoQ10 may help reduce ROS formation by limiting electron leakage during mitochondrial respiration.

PQQ (pyrroloquinoline quinone) is a redox-active compound, meaning it can readily donate and accept electrons. Through these redox properties, PQQ may help neutralize ROS and support cellular antioxidant defenses. PQQ has also been shown to support mitochondrial biogenesis and cellular energy metabolism, which may contribute to improved mitochondrial function.

PQQ may further help reduce oxidative stress through redox cycling and the activation of antioxidant signaling pathways.

Together, CoQ10 and PQQ provide complementary support for mitochondrial health. CoQ10 helps improve the efficiency of mitochondrial energy production and may reduce ROS generation by limiting electron leakage, while PQQ supports the formation of new mitochondria and promotes healthy mitochondrial function. As a result, this combination may help improve cellular energy production and resilience against oxidative stress.​

Sulforaphane​

Sulforaphane activates Nrf2, a key regulator of the body's endogenous antioxidant defense systems.

Activation of the Nrf2 pathway increases the expression of multiple antioxidant enzymes and protective cellular mechanisms, including glutathione-related enzymes, SOD, catalase, and various phase II detoxification enzymes. This, in turn, enhances the body's ability to respond to oxidative stress through stronger endogenous antioxidant defenses.

By supporting the Nrf2 pathway, sulforaphane helps improve cellular resilience against oxidative damage and promotes a more favorable redox balance. This indirect antioxidant mechanism is unique because, rather than primarily scavenging ROS itself, sulforaphane works by strengthening the body's own antioxidant and detoxification systems.​

Problem with Antioxidants​

While antioxidants can reduce oxidative stress and improve redox balance, excessive supplementation may disrupt normal physiological redox signaling.

ROS are not exclusively harmful molecules; they also serve important roles in cellular signaling, adaptation, immune function, and mitochondrial regulation. When antioxidant intake becomes excessive, these beneficial signaling pathways may be suppressed.

At higher concentrations, certain antioxidants may also exhibit pro-oxidant effects under specific conditions, potentially contributing to oxidative imbalance rather than reducing it.

For this reason, antioxidant supplementation should be approached strategically rather than indiscriminately. The goal is not to eliminate ROS entirely, but to maintain a healthy redox balance. Antioxidants are generally most beneficial when used appropriately in response to increased oxidative stress, such as during demanding training periods or other situations associated with elevated ROS production.
​

Summary​

AAS use can increase oxidative stress, which may contribute to cellular damage, mitochondrial dysfunction, inflammation, and other downstream effects associated with prolonged oxidative imbalance.

We can help mitigate oxidative stress by utilizing an antioxidant-focused protocol that supports both direct antioxidant activity and the body's endogenous antioxidant defense systems.

However, it is important to respect the potential risks of excessive antioxidant use. The goal is to optimize redox balance, not eliminate ROS entirely, as ROS also play important physiological roles in cellular signaling and adaptation.

Example of a comprehensive antioxidant protocol (not a recommendation — provided for educational purposes only):
​

• 100–200 mg NACET​
• 50 mg+ melatonin​
• 12–24 mg astaxanthin​
• 250 mg CoQ10​
• 20–40 mg PQQ​
• 15–30 mg sulforaphane​

Additional compounds sometimes utilized for antioxidant support include glutathione, vitamin E, vitamin C, curcumin (turmeric extract), and other antioxidant agents.

Ultimately, the most effective approach is to tailor antioxidant support to the individual's level of oxidative stress rather than assuming that more antioxidants will always produce better outcomes. Maintaining an appropriate redox balance is generally more important than maximizing antioxidant intake.


If you have came this far and either dnr or read it all please rep, it took me 2 days to make.​

dnrd it but repped it