HOW THE THREE INGREDIENTS WORK TOGETHER

The Cascade Is the Map

Alcohol metabolism in the liver is not a single reaction. It is a cascade with multiple stages, and each stage has its own intervention point. The ADH/ALDH oxidation chain converts ethanol to acetaldehyde to acetate. The conversion produces NADH that destabilizes mitochondrial redox balance and generates reactive oxygen species. The ROS deplete the cell's glutathione pool. The depleted GSH leaves the cell less able to neutralize the next round of ROS ⁴. Each stage matters, and each stage has a corresponding intervention point that a formula could target.

H180 targets three of those intervention points at once. (this is the part of the formula explanation that I think is the most useful framing, because the upstream-downstream-delivery picture maps cleanly to what each ingredient is meant to do.)

DHM at the Top: Upstream Enzyme Induction

DHM is the formula's upstream ingredient. The 2012 paper by Shen and colleagues found that injected DHM counteracted alcohol intoxication in rats ¹; it did not measure liver enzymes. The idea that DHM raises ADH and ALDH so the liver clears ethanol and acetaldehyde faster comes from later animal studies with mixed results. Where clearance is faster, acetaldehyde exposure is smaller and less ROS is generated downstream.

For the full DHM mechanism, see How DHM Works -- The ADH/ALDH Pathway.

SAG at the Bottom: Downstream Antioxidant Restoration

SAG at 75mg per serving acts at the downstream end of the cascade. Glutathione is the cell's primary intracellular antioxidant and is concentrated in the liver more than in any other tissue. Mitochondrial GSH in particular is critical because that is where most ROS production happens during alcohol metabolism ². SAG delivers intact glutathione across the gut wall and into liver cells, restoring the GSH pool that ethanol metabolism depletes.

The cysteine-plus-glutathione co-administration data in mice supports the broader principle of pairing a precursor or delivery form of GSH with a metabolic intervention ⁵. The cascade-coverage logic is consistent with the published animal data on each ingredient and with the cysteine-plus-glutathione co-administration work, in the available evidence at least.

For the ROS cascade SAG addresses, see ROS and Oxidative Stress.

Fulvic Acid as the Bridge: Cellular Delivery

Fulvic acid at 150mg (90 percent purity) is the connector that makes the upstream and downstream interventions actually reach their targets. The chelation chemistry that fulvic acid uses to bind metal ions in soil is the same chemistry it uses to bind small organic molecules and improve their transport across cell membranes ³. For DHM specifically, where the native bioavailability is around 4 percent, this delivery assist is what closes the gap between "labeled dose" and "delivered dose."

For the chelation mechanism in detail, see DHM and Fulvic Acid -- The Delivery Mechanism.

The Patent Note

The pairing of these three ingredients in this specific architecture is covered in our patent. Patent applications use clinical terminology appropriate for USPTO filings. The consumer marketing language for Hangovr180® follows separate FDA regulations for dietary supplements under DSHEA -- which is why what you read on the label sounds different from what you read in the patent.

Why the Combination Outperforms Components

Pulling on the cascade at three points is more effective than pulling at any one point with greater force. Doubling DHM does not produce twice the effect, because DHM cannot do the antioxidant restoration job that SAG does. Doubling SAG does not produce twice the effect, because SAG does not act on acetaldehyde clearance, the job DHM is meant to do. Any one of the three ingredients on its own would be a partial intervention and would underdeliver the combined cascade-coverage effect.

For where the 1,500mg DHM number came from, see Why 1,500mg DHM -- The Dose Logic.