Structured Nutritional Data & Citations
Deep Research Journal Entry: Relish
Nutritional Profile of Sweet Pickle Relish (Standard Commercial Type)
Reference Standard: USDA FoodData Central, SR Legacy FDC ID 172921 (Relish, sweet).
Macronutrients & Calories
| Nutrient Category | Per 100g | Per Standard Serving (1 tbsp / 15g) |
|---|---|---|
| Calories | 102 kcal (427 kJ) | 15 kcal (64 kJ) |
| Protein | 0.77 g | 0.12 g |
| Total Fat | 0.05 g | 0.01 g |
| - Saturated Fat | 0.005 g | 0.001 g |
| - Monounsaturated | 0.003 g | <0.001 g |
| - Polyunsaturated | 0.021 g | 0.003 g |
| Carbohydrates | 26.04 g | 3.91 g |
| - Sugars (Total) | 24.31 g | 3.65 g |
| - Added Sugars | Varies by brand, typically significant portion of total sugars. | Varies by brand. |
| - Dietary Fiber | 1.0 g | 0.15 g |
| Water Content | 71.45 g | 10.72 g |
Key Micronutrients (per 100g)
- Vitamins:
- Vitamin C: 0.8 mg (1% DV)
- Vitamin K (phylloquinone): 10.1 µg (8% DV)
- Vitamin A (RAE): 1 µg
- Folate (DFE): 1 µg
- Minerals:
- Sodium: 1042 mg (45% DV) - Significant contribution, often primary micronutrient concern.
- Potassium: 81 mg (2% DV)
- Calcium: 21 mg (2% DV)
- Iron: 0.28 mg (2% DV)
- Manganese: 0.027 mg (1% DV)
- Antioxidants:
- While not quantified specifically in USDA data for relish, the cucumber and bell pepper components contribute various phenolic compounds and flavonoids, albeit in diluted concentrations due to processing and sugar content.
Functional Impact
- Glycemic Index (GI): High (Estimated 70-80, due to high sugar content). Exact value varies by formulation.
- Glycemic Load (GL): Moderate per serving (Estimated ~3-4 GL per 15g serving, based on 3.65g sugars).
- Satiety Score: Very Low. Due to high water, sugar, and low fiber/protein/fat content, relish contributes minimal satiety and can potentially stimulate appetite due to its sweet-sour flavor profile.
Physical Properties
- Density: Approximately 1.05 g/cm³ (Varies slightly based on specific gravity of chopped vegetables and brine consistency).
- Volumetric Contraction: Minimal to negligible during typical consumption or post-production storage. Relish is a pre-processed, high-water-content condiment; it does not undergo significant heat-induced volume reduction by the end-user. Its volume stability is primarily dictated by packaging and initial manufacturing processes.
Citations & References:
- U.S. Department of Agriculture, Agricultural Research Service. FoodData Central, 2019. fdc.nal.usda.gov. FDC ID: 172921 (Relish, sweet).
- Harvard Medical School. "Glycemic index and glycemic load for 100+ foods." Harvard Health Publishing, 22 Jan. 2020. (General principles applied to sugar content).
Field Notes: Dr. Aria Vance
Subject: Relish
Focus: Volumetric expansion/contraction, historical context, tracking challenges.
The Manual Tracking Problem with Relish
Relish. That innocuous dollop. It's the silent saboteur, a nutritional phantom lurking on the side of our hot dogs, mingling with our tuna salad, or providing that inexplicable zest to a burger. My current deep dive at NutriSnap is into these "culinary wallpaper" items—the condiments, the garnishes, the things nobody truly accounts for. And relish, specifically, is a beast. A tiny, sweet-sour, perplexing beast.
The historical tapestry of relish is rich, surprisingly so! From ancient Roman acetabula—vinegar-based sauces for meats—to medieval European fruit preserves, the human impulse to chop, pickle, and condiment something has been relentless. The American version, that bright green confetti of cucumber and sugar, cemented its place during the industrial revolution, a triumph of preservation and flavor enhancement for the masses. It's comfort food, in condiment form. It’s part of our shared culinary heritage, a flavor profile ingrained in picnic memories.
But tracking it? Oh, the agony!
Imagine poor Dr. Aria Vance, attempting to manually log every minuscule addition to her diet. A barcode? Ha! Which relish are we talking about? Sweet? Dill? Corn? India relish? Each, a distinct nutritional identity, a unique symphony of sugar, salt, and vinegar. Generic "relish" labels are a joke. Then comes the serving size. A "tablespoon." Whose tablespoon? Is it level? Heaping? Is it my tablespoon, or the one from the cafeteria that looks suspiciously like a small ladle? The sheer variability, the maddening, infuriating imprecision of human measurement, is enough to make a data scientist weep into her kale smoothie.
We've tried, bless our analog hearts, with scales. But who weighs relish? It clings to the spoon, drips, pools unevenly. It’s a viscous enigma, a challenge to density calculations because of its chopped particulate matter suspended in liquid. And since it’s often just an addition, not the main event, the cognitive load of pausing, measuring, logging, becomes an unbearable friction point. People don't bother. They skip it. The data, my precious data, becomes a Swiss cheese of omissions.
This is precisely where NutriSnap shines. Our AI doesn't care about your grandmother's imprecise heirlooms of spoons. It doesn't flinch at the visual ambiguity of a dollop. Using forensic visual analysis, it identifies the type of relish—sweet, dill, hot, whatever—from a photo, then estimates its volume with startling accuracy. Milliliters, not ambiguous "spoons." It's not just recognizing food; it's understanding its presence, its interaction with other foods, its volumetric contribution, even its approximate density derived from the visual characteristics of its chopped components. It’s a game-changer. Finally, that silent saboteur, that nutritional phantom, is being accounted for. Every. Single. Drop.
It feels like we're finally seeing the complete picture, beyond the main plate.
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