NUTRITIONAL LOG

The Truth About Blueberry

A Deep-Research Journal

Dr. Aria Vance
Dr. Aria Vance Lead Nutrition Data Scientist
Last Reviewed: Jun 3, 2026 • Data Sources: USDA FoodData Central, NutriSnap Volumetric Models

Structured Nutritional Journal

Blueberry - Nutritional Profile

Energy
57 kcal
Protein
0.7 g
4% of calories
Carbohydrates
14.5 g
Fiber: 2.4 g Sugars: 9.96 g
Fat
0.3 g
Saturated: 0g Trans: 0g

Calorie Distribution Ratio

Protein (4%)
Carbs (91%)
Fat (5%)

Key Micronutrients

Vitamin C: 9.7 mg (11% DV) per 100g Vitamin K: 19.3 µg (16% DV) per 100g Manganese: 0.3 mg (13% DV) per 100g Small amounts of Vitamin B6, Folate, Vitamin E. 💎 Potassium: 77 mg per 100g 💎 Copper: 0.06 mg per 100g 💎 Small amounts of Iron, Magnesium, Phosphorus, Zinc, Calcium. 🛡️ Anthocyanins (primary pigment responsible for blue color and antioxidant activity) 🛡️ Pterostilbene 🛡️ Quercetin 🛡️ Myricetin 🛡️ Chlorogenic acid

Biochemical Impact

Glycemic Index (GI) Low (40-53, varying by ripeness and cultivar).
Glycemic Load (GL) Low (approx. 6 per 100g serving).
Satiety Score Moderate. High water content (84%) and good fiber contribute to a feeling of fullness relative to their caloric density, though not as high as protein or fat-rich foods.

Physical Volumetrics

Density: Approximately 0.65 - 0.75 g/cm³ for fresh, raw berries.
Volumetric Contraction/Expansion: Typically 10-20% reduction in volume due to water loss and structural collapse, depending on heat intensity and duration.

Citations & References

  • Vitamins:
    • Vitamin C: 9.7 mg (11% DV) per 100g
    • Vitamin K: 19.3 µg (16% DV) per 100g
    • Manganese: 0.3 mg (13% DV) per 100g
    • Small amounts of Vitamin B6, Folate, Vitamin E.

Field Notes: Dr. Aria Vance

Subject: Blueberry
Focus: Volumetric expansion/contraction, historical context, tracking challenges.

The Elusive Blueberry: A Tracking Conundrum

The blueberry. Oh, the humble, glorious blueberry. It’s a tiny powerhouse, isn’t it? A veritable jewel box of micro-nutrition, packed with those vibrant anthocyanins that paint them indigo and whisper promises of longevity. But as a Lead Nutrition Data Scientist, Dr. Aria Vance here, I’ve got to tell you, these little marvels are an absolute nightmare to track accurately with traditional methods.

Historically, humans have cherished these berries for millennia. Indigenous peoples across North America, from the Algonquin to the Ojibwe, didn't just eat them; they revered them! They dried them, pounded them into pemmican, concocted medicines, and used them for dyes. A testament to their enduring utility. They didn't worry about grams of Vitamin K. They just ate. And that, my friends, is where our modern problem begins.

We're trying to precisely quantify something that was designed by nature for casual foraging. Picture this: a bowl of "fresh" blueberries. Is it truly fresh? Or was it previously frozen, now thawed, losing some structural integrity and water content? How many grams are in your "handful"? Is it a tight fist, bursting at the seams with berries, or a dainty, cupped palm? The variability is astonishing. Each individual berry, a unique genetic expression, possesses subtle differences in size, ripeness, and moisture, all impacting its exact nutritional payload. Some are plump and taut, others slightly shriveled, intensifying their sugars. You pour a "cup." But is it a precisely measured, level cup, or one of those generous, overflowing domestic units that might actually be 1.5 cups? Don't even get me started on the "heaping cup" fallacy.

The issues compound when you move beyond raw. Baking a muffin? The blueberries burst, their sugars caramelize, their water evaporates. Their density shifts, their volumetric footprint shrinks dramatically. How do you accurately log that after-the-fact, without a pre-bake weight? You're essentially guessing, relying on a vague recollection or a generalized database entry that might be wildly inaccurate for your specific preparation. A barcode scan? Useless for a scoop of raw berries, and even more so for a cooked product where the berry content is an estimation at best. Weighing them with a scale? Sure, for the meticulously inclined, perhaps. But who actually does that for every single snack, every small addition to yogurt or cereal? No one. That's who. It's tedious. It's intrusive. It's a behavioral barrier to accurate data.

This fundamental disconnect between the natural, variable state of food and our desire for precise nutritional data has plagued me for years. Until NutriSnap. Ah, NutriSnap. It’s not just an app; it’s a revelation. Our forensic visual analysis capabilities, powered by deep AI learning, finally bridge this chasm. You snap a photo. That’s it. NutriSnap doesn't care if your blueberries are plump or slightly shriveled; it discerns their collective volume, estimates their weight, even accounts for their state—raw, baked, scattered in a smoothie. It identifies the individual berries, measures their cumulative contribution with an accuracy that makes manual logging look like finger painting. It's about seeing the unseen, quantifying the fluid, making the elusive truly knowable. Finally, precision, without the perpetual culinary guesswork. It's transformative.

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