Structured Nutritional Data & Citations
SECTION 1: SEO Data
Pork Chop (Cooked, Pan-Fried, Boneless, Lean Only) - Nutritional Profile
Macro & Calorie Breakdown
| Metric | Per 100g | Per Standard Serving (113g / 4 oz) |
|---|---|---|
| Calories | 216 kcal | 244 kcal |
| Protein | 30.17 g | 34.10 g |
| Total Fat | 9.87 g | 11.15 g |
| Saturated Fat | 3.32 g | 3.75 g |
| Monounsaturated Fat | 4.30 g | 4.86 g |
| Polyunsaturated Fat | 1.10 g | 1.24 g |
| Carbohydrates | 0.00 g | 0.00 g |
| Dietary Fiber | 0.00 g | 0.00 g |
| Sugars | 0.00 g | 0.00 g |
Key Micronutrients (per 100g)
- Vitamins:
- Thiamin (B1): 0.81 mg (67% DV) - Critical for energy metabolism.
- Riboflavin (B2): 0.35 mg (27% DV)
- Niacin (B3): 8.85 mg (55% DV)
- Vitamin B6: 0.65 mg (38% DV)
- Vitamin B12: 0.77 µg (32% DV) - Essential for nerve function and red blood cell formation.
- Choline: 91.5 mg (17% DV)
- Minerals:
- Phosphorus: 302 mg (24% DV)
- Selenium: 42.5 µg (77% DV) - Potent antioxidant.
- Zinc: 3.19 mg (29% DV) - Important for immune function and wound healing.
- Potassium: 363 mg (8% DV)
- Iron: 1.05 mg (6% DV)
Functional Impact
- Glycemic Index (GI): 0 (Very Low) - Pure protein/fat food, no significant impact on blood glucose.
- Glycemic Load (GL): 0 (Very Low)
- Satiety Score: High - Excellent source of complete protein, contributing significantly to feelings of fullness and reduced appetite. Proteins have the highest satiety index among macronutrients.
Physical Properties
- Density (Cooked, Lean): Approximately 1.05 g/cm³ (varies slightly with cooking method and specific fat content).
- Volumetric Contraction (after cooking): Average 20-25% reduction in volume and weight (primarily due to water loss and fat rendering).
Citations & References
- USDA FoodData Central. (2023). Pork, fresh, loin, center rib (chops), boneless, separable lean only, cooked, pan-fried. FDC ID: 2705872. Retrieved from https://fdc.nal.usda.gov/fdc-app.html#/food-details/2705872/nutrients
- Holt, S. H. A., et al. (1995). A satiety index of common foods. European Journal of Clinical Nutrition, 49(9), 675-690.
- Meat Science (General Consensus). (Various sources). Density and shrinkage values are general estimates for cooked lean meat.
Field Notes: Dr. Aria Vance
Subject: Pork Chop
Focus: Volumetric expansion/contraction, historical context, tracking challenges.
The Elusive Anatomy of a Pork Chop: Why Tracking Is a Culinary Conundrum
Dr. Aria Vance, Lead Nutrition Data Scientist at NutriSnap
Today's subject: the humble pork chop. A dinner staple. So seemingly straightforward, isn't it? Yet, for those of us striving for precise nutritional tracking, this deceptively simple cut of meat presents a labyrinth of variables. A profound, almost existential challenge.
Pork, historically, has sustained civilizations for millennia. From ancient Chinese dynasties to European peasant tables, it's been a cornerstone protein. The "chop" itself, a relatively modern invention in culinary history, carved from the loin, gained popularity for its convenience and flavor. But what is a pork chop, truly? Is it the thick-cut, bone-in behemoth from a heritage hog, gloriously marbled? Or the thin, boneless, almost anorexic cutlet of factory-farmed lean? Both are "pork chops." This variability, this profound lack of standardization, instantly cripples any manual tracking attempt.
You stand there, a freshly cooked chop on your plate, scale in hand. What are you weighing? The bone? Of course not. But how meticulously do you debone before weighing? And what about the fat cap? Is that delectable, rendered edge counted as "lean only" or "separable fat"? The average person, diligently trying to log their meal, isn't going to surgically separate these components. They just aren't. They eyeball it. They guess. And those guesses, accumulated over meals, over weeks, utterly distort their dietary intake data.
Then there's the cooking method. A grilled chop sheds fat differently than a pan-fried one. The pan drippings, oh, the glorious, caloric drippings! Do you meticulously scrape and measure those, factor them into your tally? Unlikely. What about marinades? Sugar-laden sauces that caramelize onto the surface, adding hidden carbs and calories? No barcode scanner on Earth can account for that beautifully lacquered teriyaki glaze you just brushed on. No measuring cup can gauge the volume of a chop, especially not after it’s shrunk and contorted under heat. Trying to fit that irregularly shaped piece of protein into a standardized vessel feels less like science and more like a cruel culinary joke.
This is where the human element fails, utterly. The sheer mental load required for accurate manual tracking—measuring, estimating, subtracting, accounting for every minute alteration from raw product to cooked meal—is simply unsustainable for the vast majority of people. It breeds frustration. It fosters inaccuracy. It's a system fundamentally at odds with real-world eating.
We needed something... smarter. A solution that understood the dynamic, chaotic nature of food outside of a lab. And that's precisely why NutriSnap was conceived. Our AI, trained on millions of real-world meals, performs forensic visual analysis. You simply snap a picture. It identifies the cut, estimates fat content based on visual cues, accounts for cooking shrinkage, even discerns residual oil from the pan. It's like having a tiny, incredibly patient nutritionist living in your phone, a digital oracle, no less. Finally, true dietary insight, freed from the tyranny of the kitchen scale and the guesswork of a tired brain. It makes the elusive, knowable.
Explore More Research
Tired of Manual Tracking?
Stop scanning barcodes and guessing portion sizes. NutriSnap uses forensic AI to track your macros instantly from a single photo.