NATURAL HOME CURES · NOPAL SCIENCE

Thiamine
& Nopal

Cellular energy and a small coenzyme with an essential job.

Explore the science
A selection of whole grains
A CONNECTION WITH THE WHOLE CACTUSWhole grains. Everyday nutrition.

It is an essential, water-soluble vitamin that helps our bodies turn the carbohydrates we eat into usable energy.(1)

But saying thiamine is an "energy vitamin" can be misleading if we picture it working like caffeine.

Thiamine doesn’t give the body an artificial jolt.

Instead, it helps the machinery inside our cells release and use energy from food.(1), (2)

Thiamine also plays an important role in normal nerve and muscle function.

And it has a natural connection with Nopal cactus and prickly pear.

What Does Thiamine Do?

FROM VITAMIN TO COENZYME

Vitamin B1 → its active form

The body converts thiamine (vitamin B1) into TPP, an active form that helps enzymes use energy from food.

Our digestive system breaks down many of the carbohydrates we eat into glucose, a simple sugar.

Glucose can then be used by our cells as fuel.

But getting from glucose to usable cellular energy requires a series of chemical steps.

Thiamine becomes part of an active form called thiamine pyrophosphate, or TPP.(1), (2)

TPP helps several enzymes perform reactions involved in carbohydrate and energy metabolism.

You don’t need to remember the name.

The important idea is simple:

Thiamine helps our cells use the energy contained in food.

Thiamine and the Nervous System

Conceptual illustration of nerve signaling
Conceptual illustration, not microscopy.

Our nervous system has a particularly high demand for energy.

The brain and nerves depend on a continuous supply of energy to stay active.

Because thiamine helps cells use energy, it supports the work of the brain and nerves.(1), (3)

Thiamine also participates in processes associated with normal nerve signaling and muscle function.(2), (3)

So vitamin B1 connects something we do every day—eating food—with some of the body’s most fundamental cellular processes.

Where Does Thiamine Come From?

Lentils and chickpeas, examples of foods that provide vitamin B1

Foods that provide thiamine, either naturally or through enrichment or fortification, include:

  • Whole grains
  • Fortified cereals and breads
  • Pork
  • Fish
  • Beans and lentils
  • Peas
  • Nuts and seeds
  • Certain vegetables
  • Nopal cactus and prickly pear

Scientific analyses of Nopal and prickly pear materials have reported thiamine among the naturally occurring vitamins associated with the plant.(4), (5)

Thiamine in Nopal Cactus

Fresh Nopal pads and prepared nopales

When most people think about the nutritional value of Nopal, fiber probably comes to mind first.

But Nopal is much more nutritionally varied than fiber alone.

Researchers studying Nopal cactus and prickly pear have identified vitamins, minerals, amino acids, fiber and numerous natural plant compounds.(4), (5)

Thiamine—vitamin B1—is one piece of that larger picture.

And because thiamine participates in normal energy metabolism, it gives us another interesting way to look at the cactus.

Not as an "energy booster."

But as a plant containing nutrients that participate in the ordinary systems our bodies use every day.

How a Tiny Vitamin Helps Unlock Food Energy

Conceptual illustration of cellular energy processes
Conceptual illustration, not microscopy.

Imagine eating a piece of food containing carbohydrates.

Your digestive system can break those carbohydrates down.

But that isn’t the end of the story.

The resulting nutrients still need to move through a complicated series of reactions before cells can capture their energy efficiently.

Thiamine-dependent enzymes participate at important points in those pathways.(1), (2)

Think of thiamine less like fuel and more like one of the tools needed to use the fuel.

The food provides the energy.

Thiamine helps the cellular machinery process it.

That’s a much better way to understand why vitamin B1 is associated with energy.

Why Processing Matters

HANDLING MATTERS

Heat · Water · Storage

Thiamine can be affected by processing. Some can also leave foods in discarded cooking water.

Thiamine is a water-soluble vitamin, and it can be affected by food processing, cooking and storage.(1), (6)

For example, boiling foods in water can allow some thiamine to move into the cooking liquid.

Heat can also contribute to losses under certain conditions.(6)

That makes the way plant foods are handled an interesting part of their nutritional story.

From Our Farms to the Nopal Family

Natural Home Cures Nopal capsule bottle

At Natural Home Cures, our flagship Freeze-Dried Nopal Powder Capsules begin with cactus grown on our own farms. After harvest, we freeze-dry the Nopal and prepare it for capsules.

Our goal is to preserve the character of the cactus we grow as closely as practical while creating a convenient finished product.

Our Nopal family also includes Nopal Powder and Prickly Pear Drops, giving customers several ways to explore this versatile cactus.

One Vitamin Inside a Much Bigger Cactus

Thiamine is essential.

Its role in normal energy metabolism is important.

Its relationship with the nervous system is fascinating.

But thiamine is still only one part of Nopal’s nutritional story.

The cactus contains amino acids.

It contains minerals.

It contains fiber.

It contains vitamins and naturally occurring plant pigments.(4), (5)

Together, those components give us a much better picture of Nopal cactus and prickly pear than any single nutrient could provide by itself.

And for Natural Home Cures, that whole-plant story begins with the Nopal we grow and continues into the products we offer our customers.

Natural Home Cures Nopal capsule bottle on limestone

FROM CACTUS TO PRODUCT

Keep the botanical
in the story.

Freeze-dried Nopal cactus capsules.

Explore our Nopal →
The research behind this article

Source References

6 sources Show referencesHide references
  1. 01
    Nutrition referenceThiamin — Fact Sheet for Health Professionals.

    National Institutes of Health, Office of Dietary Supplements.

    Full citation
    National Institutes of Health, Office of Dietary Supplements. “Thiamin — Fact Sheet for Health Professionals.”
    View source
  2. 02
    Research referenceA Review of the Biochemistry, Metabolism and Clinical Benefits of Thiamin(e) and Its Derivatives.

    Lonsdale D. Evidence-Based Complementary and Alternative Medicine. 2006;3(1):49–59.

    Full citation
    Lonsdale D. “A Review of the Biochemistry, Metabolism and Clinical Benefits of Thiamin(e) and Its Derivatives.” Evidence-Based Complementary and Alternative Medicine. 2006;3(1):49–59.
    View source
  3. 03
    Research referenceThiamin Function, Metabolism, Uptake, and Transport.

    Manzetti S, Zhang J, van der Spoel D. Biochemistry. 2014;53(5):821–835.

    Full citation
    Manzetti S, Zhang J, van der Spoel D. “Thiamin Function, Metabolism, Uptake, and Transport.” Biochemistry. 2014;53(5):821–835.
    View source
  4. 04
    Research referenceNopal Cactus (Opuntia ficus-indica) as a Source of Bioactive Compounds for Nutrition, Health and Disease.

    El-Mostafa K, El Kharrassi Y, Badreddine A, et al. Molecules. 2014;19(9):14879–14901.

    Full citation
    El-Mostafa K, El Kharrassi Y, Badreddine A, et al. “Nopal Cactus (Opuntia ficus-indica) as a Source of Bioactive Compounds for Nutrition, Health and Disease.” Molecules. 2014;19(9):14879–14901.
    View source
  5. 05
    Research referencePhytochemical and Nutritional Significance of Cactus Pear.

    Stintzing FC, Schieber A, Carle R. European Food Research and Technology. 2001;212:396–407.

    Full citation
    Stintzing FC, Schieber A, Carle R. “Phytochemical and Nutritional Significance of Cactus Pear.” European Food Research and Technology. 2001;212:396–407.
    View source
  6. 06
    Research referenceVitamin Losses: Retention During Heat Treatment and Continual Changes Expressed by Mathematical Models.

    Lešková E, Kubíková J, Kováčiková E, Košická M, Porubská J, Holčíková K. Journal of Food Composition and Analysis. 2006;19(4):252–276.

    Full citation
    Lešková E, Kubíková J, Kováčiková E, Košická M, Porubská J, Holčíková K. “Vitamin Losses: Retention During Heat Treatment and Continual Changes Expressed by Mathematical Models.” Journal of Food Composition and Analysis. 2006;19(4):252–276.
    View source