Pie crust, refrigerated, regular, baked

Baked Products Pastry

Pie crust (refrigerated, regular, baked) is a high‑energy pastry base made from refined flour and fats, providing about 1002 kcal per whole crust (198g) with 56.8 g of fat and 115.9 g of carbohydrates. It supplies small amounts of micronutrients like iron (2.3 mg), phosphorus (103 mg), and B‑vitamins but is low in fiber. While excellent as a structural and flavor foundation in baking, its nutrient profile reflects refined ingredients and higher fat/sodium content that warrant mindful portioning.

⚡ Quick Facts

Calories
**1002 kcal per 1 pie crust (198g)**
Key Nutrient
Fat: 56.8 g
Key Nutrient
Carbohydrates: 115.9 g
Key Nutrient
Protein: 6.8 g

💎 Key Nutrients


What Is Pie crust, refrigerated, regular, baked? Origin and Varieties

Pie crust, refrigerated, regular, baked is a pre‑prepared pastry shell widely used in culinary traditions around the world as the foundational structure of pies, quiches, tarts, and savory galettes. The basic components are refined wheat flour, fat (such as shortening or butter), water, and sometimes salt. This mixture is combined to create a dough that, when baked, forms a firm yet flaky structure capable of holding both sweet and savory fillings. Refrigerated pie crusts emerged in the 20th century with industrialization and the increasing demand for convenience in home baking. Brands began producing rolled doughs sealed in airtight packaging that consumers could easily unroll and fit into pie pans without the extensive labor traditionally associated with making pastry from scratch. Historically, pastry originated in ancient civilizations, with early forms of dough dating back to the Egyptians and Romans, who used simple flour and oil mixtures. Over time, European bakers refined techniques, emphasizing fat distribution within the dough to create lamination layers that produce flakiness upon baking. By the mid‑1900s, refrigerated pie crusts gained popularity as freezers became commonplace in households. Today, both all‑butter and shortening‑based refrigerated crusts are available, with variations including gluten‑free flours, whole grain blends, and preparations tailored to specific dietary needs. The refrigeration and baking process allows the dough’s structure to set and develop flavor. While homemade pie crusts offer control over ingredients, refrigerated options provide convenience and consistent results. Pie crusts can vary in thickness, texture, and fat composition. Shortening‑based crusts tend to be flakier and more stable at room temperature, whereas butter‑based crusts offer richer flavor and a more tender texture but can be more delicate. Culinary traditions worldwide use similar pastry structures beyond classic American pies. In French cuisine, pâte brisée and pâte sucrée are foundational pastries, while in British baking, these allow for elaborate meat pies and fruit tarts. In Mediterranean cuisine, variations of pastry shells are found in savory pies like spanakopita (using phyllo dough) or sweet baklava. Although this product is designed as a baked pastry base, it is not typically eaten alone. Instead, it's combined with fillings — from pumpkin and apple in desserts to quiche fillings of eggs, cheese, and vegetables. Each application affects the nutritional and sensory profile of the dish. Refrigerated pie crusts represent a balance between home cooking tradition and modern convenience, and understanding their origins and varieties provides both cultural and practical context for their role in contemporary kitchens.

Nutrition Profile: A Detailed Breakdown

The nutrition profile of pie crust, refrigerated, regular, baked reflects its ingredients: refined wheat flour and significant fat content. A whole crust (198g) provides 1002 kcal, making it a very energy‑dense food suitable as a calorie source in larger meals but not ideal as a standalone nutrient‑dense item. Most of these calories come from fats (56.8 g) and carbohydrates (115.9 g), with protein (6.8 g) contributing a small fraction. Carbohydrates: At 115.9 g per serving, carbohydrates account for the majority of the energy, most of which comes from starch derived from refined flour. Because refined flour is low in fiber (only 2.8 g per serving), this form of carbohydrate rapidly increases blood glucose levels, which can be a consideration for individuals managing blood sugar. The low fiber content also means minimal benefits in terms of digestive regularity or extended satiety compared with whole‑grain products. Fats: Pie crust’s high fat content — 56.8 g total fat, including 22 g saturated fat — largely determines its texture and flavor. Saturated fats contribute to the flaky texture but are also associated with higher LDL cholesterol when consumed in excess, which has implications for heart health. While this crust does not contain measurable trans fats in typical formulations, the high saturated fat profile is still significant when considering overall dietary patterns. Protein: At 6.8 g, the protein content is modest and does not provide a substantial contribution toward daily protein needs. Additionally, the amino acid profile is incomplete, lacking some essential amino acids in appreciable amounts; thus, pie crust should not be relied upon as a primary protein source. Micronutrients: Pie crust offers small amounts of minerals and vitamins. For example, iron (2.3 mg) supports oxygen transport, while phosphorus (103 mg) is important for bone health and energy metabolism. B‑vitamins such as folate (93.06 mcg) contribute to cellular function and DNA synthesis. However, these nutrients are present in relatively low quantities compared with more nutrient‑dense foods. Comparisons: When we compare pie crust to other carbohydrate sources like whole‑grain bread or oats, the latter provides more dietary fiber and micronutrients with fewer calories per gram. Vegetables or legumes deliver fiber, phytonutrients, and protein with far lower energy density. While pie crust adds structural appeal to baked goods, its low nutrient density score — evidenced by its limited vitamins and moderate mineral content — highlights its role more as a culinary ingredient than a health food. Understanding this detailed macronutrient and micronutrient breakdown enables both consumers and culinary professionals to integrate pie crust thoughtfully into dishes and dietary plans. Its profile makes it suitable as part of a balanced recipe but not as a frequent base for nutrient‑focused meals.

Evidence-Based Health Benefits

Pie crust, refrigerated, regular, baked is not typically studied as a standalone food in clinical research; rather, the health implications of its key components — refined grains and fats — have been examined extensively. Studies on refined grains show a complex picture. A comprehensive meta‑analysis spanning 22 studies with over 1.6 million participants indicated that while whole grain consumption is consistently linked with lower risk of cardiovascular disease (CVD) and mortality, refined grain intake showed no strong clear association with major CVD events when isolated from dietary patterns, though evidence was considered low quality for refined grains specifically. This suggests that when consumed as part of a balanced diet, occasional refined grain foods like pie crust may not independently elevate disease risk. However, higher‑level evidence supports prioritizing whole grains for cardiometabolic health. Furthermore, research into ultra‑processed foods, which often include refined flour pastries, has linked higher intakes with increased risk of poor health outcomes including obesity, type 2 diabetes, and cardiovascular disease, likely due to high saturated fats, sodium, and low fiber content. These data are drawn from large observational cohorts and systematic reviews, underscoring dietary pattern effects rather than isolated food elements. In addition to grain composition, the fats used in pie crust — frequently saturated fats like butter or shortening — have been studied for their role in heart health. Major health authorities emphasize reducing saturated fat intake, as higher levels can raise LDL cholesterol, increasing atherosclerosis risk. For this reason, when pie crust is consumed occasionally within an overall diet rich in unsaturated fats, fruits, vegetables, and whole grains, it can fit into healthy eating patterns. Collectively, these studies emphasize that while pie crust itself does not deliver substantial health benefits, understanding its role within an overall dietary context allows moderation without necessarily compromising long‑term health when consumed as part of diverse, nutrient‑rich diets.

❤️ Health Benefits

Provides energy for daily activities

High carbohydrate and fat content supply calories that can be used immediately for energy or stored for later use.

Evidence: moderate

⚖️ Comparisons

Vs. Whole grain pie crust

Whole grain versions contain more fiber and micronutrients and lower glycemic response compared with refined crust.

🧊 Storage Guide

🏠
Counter
2 days
❄️
Fridge
3–4 days
🧊
Freezer
1–2 months (after baking)
⚠️ Signs of Spoilage:
  • smell: sour or off odors
  • visual: mold growth, discoloration
  • texture: excessive sogginess or dryness
  • when to discard: visible mold or foul smell

👥 Special Considerations

elderly

Why: Digestive comfort and balanced nutrients are priorities.

Recommendation: Moderation and pairing with fiber/protein

athletes

Why: High calories and carbs may support intense activity when balanced.

Recommendation: Can be used for quick energy

children

Why: High calorie and refined content may displace more nutrient‑dense foods.

Recommendation: Limited portions

pregnancy

Why: Provides calories but should be balanced with nutrient‑rich foods.

Recommendation: Occasional consumption is acceptable

breastfeeding

Why: High energy can support needs but prioritize nutrient‑dense foods.

Recommendation: Moderation

🔬 Detailed Nutrition Profile (USDA)

Common Portions

1.00 pie crust (198.00g)
Nutrient Amount Unit
Water 7.9600 g
Energy 506.0000 kcal
Energy 2117.0000 kJ
Protein 3.4100 g
Total lipid (fat) 28.6900 g
Ash 1.4200 g
Carbohydrate, by difference 58.5200 g
Fiber, total dietary 1.4000 g
Starch 51.8500 g
Calcium, Ca 12.0000 mg
Iron, Fe 1.1500 mg
Magnesium, Mg 9.0000 mg
Phosphorus, P 52.0000 mg
Potassium, K 83.0000 mg
Sodium, Na 472.0000 mg
Zinc, Zn 0.2200 mg
Copper, Cu 0.0510 mg
Manganese, Mn 0.2090 mg
Selenium, Se 4.5000 µg
Thiamin 0.1400 mg
Riboflavin 0.0370 mg
Niacin 1.2850 mg
Pantothenic acid 0.2950 mg
Vitamin B-6 0.0200 mg
Folate, total 32.0000 µg
Folic acid 21.0000 µg
Folate, food 11.0000 µg
Folate, DFE 47.0000 µg
Vitamin B-12 0.0000 µg
Vitamin E (alpha-tocopherol) 0.0500 mg
Tocopherol, beta 0.0100 mg
Tocopherol, gamma 0.1500 mg
Tocopherol, delta 0.0300 mg
Tocotrienol, alpha 0.0100 mg
Tocotrienol, beta 0.0000 mg
Tocotrienol, gamma 0.0100 mg
Tocotrienol, delta 0.0000 mg
Vitamin K (phylloquinone) 0.4000 µg
Vitamin K (Dihydrophylloquinone) 0.0000 µg
Vitamin K (Menaquinone-4) 4.5000 µg
Fatty acids, total saturated 11.0870 g
SFA 8:0 0.0000 g
SFA 10:0 0.0000 g
SFA 12:0 0.0000 g
SFA 14:0 0.3910 g
SFA 15:0 0.0000 g
SFA 16:0 6.5630 g
SFA 17:0 0.1090 g
SFA 18:0 3.9510 g
SFA 20:0 0.0730 g
SFA 22:0 0.0000 g
Fatty acids, total monounsaturated 11.8150 g
MUFA 14:1 0.0000 g
MUFA 15:1 0.0000 g
MUFA 16:1 0.6040 g
MUFA 17:1 0.0000 g
MUFA 18:1 11.0020 g
MUFA 20:1 0.2090 g
Fatty acids, total polyunsaturated 3.7560 g
PUFA 18:2 3.4230 g
PUFA 18:3 0.1480 g
PUFA 18:3 n-3 c,c,c (ALA) 0.1480 g
PUFA 18:3 n-6 c,c,c 0.0000 g
PUFA 20:2 n-6 c,c 0.1390 g
PUFA 20:3 0.0000 g
PUFA 20:4 0.0470 g
Tryptophan 0.0350 g
Threonine 0.0660 g
Isoleucine 0.1200 g
Leucine 0.2200 g
Lysine 0.0700 g
Methionine 0.0500 g
Cystine 0.0660 g
Phenylalanine 0.1450 g
Tyrosine 0.0700 g
Valine 0.1450 g
Arginine 0.1100 g
Histidine 0.0600 g
Alanine 0.0990 g
Aspartic acid 0.1630 g
Glutamic acid 1.0940 g
Glycine 0.1260 g
Proline 0.4400 g
Serine 0.1660 g
Hydroxyproline 0.0000 g

Source: USDA FoodData Central (FDC ID: 167930)

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