Bread, potato

Baked Products Bread

Bread, potato (USDA FDC ID 167943) is a type of baked good where potato solids or flour replace part of wheat flour to create a moist, slightly sweet slice with distinctive texture. At ~266 kcal per 100 g, it’s rich in carbohydrates and provides meaningful amounts of protein (12.5 g) and potassium (718 mg) along with fiber and B vitamins. Because of the starch contribution from potatoes, this bread often has a softer crumb and may digest more slowly than standard white bread.

⚡ Quick Facts

Calories
266 kcal per 100g slice (approx)
Key Nutrient
Protein: 12.5 g
Key Nutrient
Carbohydrates: 47.07 g
Key Nutrient
Fat: 3.13 g

💎 Key Nutrients


What Is Bread, Potato? Origin and Varieties

Bread, potato — commonly called potato bread — is a loaf or sliced bread product where cooked potatoes, potato flour, or dehydrated potato flakes are incorporated into a traditional wheat flour dough. The practice of adding potatoes to bread dates back centuries in regions where potatoes are plentiful. In Europe, particularly in Ireland and Germany, bakers historically added potatoes to wheat or rye dough to extend scarce grain supplies during lean harvests. Potato bread appears in a variety of forms: in some regions it is made with mashed potatoes blended into the dough, producing a soft crumb and moist texture; in others, potato flour or flakes are added to the dough as a dry ingredient that contributes subtle flavor and nutrient variation. According to food historians, the addition of potato ingredients not only diversifies taste and texture, but also influences the staling characteristics of bread, often slowing moisture loss and keeping the crumb softer for longer periods, thanks to potato granule properties and starch behavior during storage. Potato bread may vary significantly by recipe, ranging from commercial, pre-sliced sandwich loaves to artisanal sourdough-based versions where mashed potato and natural fermentation combine. Potato’s natural sugars and soluble fibers contribute to flavor complexity, and the moderate salt and yeast content typical in commercial potato bread formulas encourage both leavening and shelf stability. Potatoes’ native starch characteristics — particularly gelatinized and retrograded starch — interact with wheat gluten, affecting dough elasticity and crumb structure. Traditional methods may use cooked and cooled potatoes for a denser loaf, while modern commercial brands sometimes employ dehydrated potato flakes to streamline production. Potato bread isn’t limited to a single cultural tradition; it’s found in North America, Europe, and parts of Asia, each bringing local preferences for crust color, seasoning, and crust-to-crumb ratio. While some recipes use heavy potato content for a more open, moist structure, others limit potato percentage to enhance shelf life without compromising structural integrity. Across varieties, what unites potato breads is their pleasing texture, hint of sweetness, and elevated moisture compared with standard wheat bread.

Nutrition Profile: A Detailed Breakdown

Bread, potato’s nutrient profile reflects its hybrid composition of wheat and potato ingredients, which together deliver energy primarily from carbohydrates, with moderate protein and minimal fat. Per 100 g, this bread provides 266 kcal of energy, making it a carbohydrate-dense food suitable for energy needs in active individuals. Carbohydrates account for the largest portion of the calories, with 47.07 g per 100 g, supplying readily available glucose for immediate energy. Much of this carbohydrate content is starch; however, because potato starch behaves differently than wheat starch, it may contribute a slowly digestible component that affects post-meal blood sugar response when consumed with other foods. Dietary fiber in potato bread measures 6.3 g per 100 g, which is notably higher than many white breads and beneficial for digestive health and sustained fullness. Fiber contributes to colon health by increasing fecal bulk and feeding beneficial microbes. Protein content is moderate at 12.5 g per 100 g, coming from the wheat component, with a range of amino acids including glutamic acid and leucine present, though not reaching levels of complete proteins found in animal products. This makes potato bread a reasonable plant-based protein source among bread products. Fat content is low at 3.13 g per 100 g, with negligible saturated and trans fats, which aligns with dietary patterns favoring lower intake of unhealthy fats. The bread also supplies a spectrum of micronutrients: potassium at 718 mg per 100 g stands out — a reflection of the potato’s intrinsic mineral density — which supports electrolyte balance, nerve function, and muscle contraction. Additionally, it contains 188 mg calcium, 2.25 mg iron, and 149 µg folate, contributing to bone health, oxygen transport, and DNA synthesis, respectively. B vitamins such as thiamin, riboflavin, niacin, and B6 are present in modest amounts, supporting energy metabolism and nervous system health. Vitamins like A and K are present in small quantities, while vitamin C is absent, typical of baked goods. When compared to standard white bread, potato bread often features more potassium and slightly more fiber, although exact values vary widely by brand and recipe. On a per-slice basis, commercial analyses show potato bread can contain about 128 mg potassium and 1.6 g fiber per 28 g slice, highlighting its enhanced micronutrient content relative to simple enriched wheat breads. This nutrition complexity makes potato bread more than just an energy source: it provides electrolytes, fiber, and diverse micronutrients that support varied metabolic pathways and daily nutrient intake.

Evidence-Based Health Benefits

Emerging scientific research on bread, particularly formulations enriched with potato or resistant starch, suggests several potential health benefits when consumed as part of a balanced diet. First, potato-enriched bread may attenuate postprandial glucose responses compared to standard white bread. This is hypothesized to arise from potato starch’s physical and biochemical properties; cooked and cooled potato components can generate resistant starch that resists rapid digestion, slowing glucose absorption and reducing glycemic impact. Studies involving resistant starch-enriched breads demonstrated lower glucose and insulin responses and greater satiety in healthy adults, with glycemic index values significantly reduced when resistant starch replaces a portion of digestible starch. Although the specific glycemic index for potato bread per se varies by recipe, clinical evidence indicates that breads with increased resistant starch content can yield lower postprandial glucose responses than conventional breads, which is advantageous for metabolic health and blood sugar control. Secondly, research feeding steamed potato-wheat bread to adults showed decreases in markers such as LDL cholesterol and body weight over several weeks, suggesting that replacing typical refined breads with potato-enriched variants might support cardiovascular risk factors when integrated into an overall healthy diet. While more targeted trials are needed, these findings align with the understanding that dietary patterns rich in complex carbohydrates and fibers support lipid metabolism. Thirdly, fiber and resistant starch components in potato bread can promote digestive health by serving as substrates for gut microbiota fermentation, leading to production of short-chain fatty acids (SCFAs) like butyrate. SCFAs nourish colonocytes, modulate immune signaling in the gut, and may reduce inflammation. Resistant starch has been widely studied for its role as a prebiotic, demonstrating capacity to enhance beneficial bacteria populations such as Bifidobacterium and Lactobacillus. Fourth, the presence of potassium — significantly elevated compared to many refined breads — supports electrolyte balance and may aid in blood pressure regulation when consumed in conjunction with a diet lower in sodium. Potassium-rich foods are associated with lower hypertension risk and improved vascular function. Finally, the inclusion of micronutrients such as folate and iron contributes to nutrient adequacy for populations at risk of deficiencies, such as pregnant women (folate) or individuals with iron loss. While the strength of evidence varies across outcomes — from moderate evidence for improved glycemic responses to preliminary data on cardiovascular markers — integrating breads with a higher fiber and resistant starch profile such as potato bread into whole-diet approaches appears promising for supporting metabolic and digestive health. Further randomized controlled trials are warranted to isolate the specific contributions of potato bread’s unique composition to long-term health outcomes.

Potential Risks and Who Should Be Careful

Despite its nutrient content, Bread, potato also has considerations for certain populations. The first concern is sodium content: at 375 mg per 100 g, sodium can contribute significantly to daily intake, which may be problematic for individuals with hypertension or cardiovascular disease who need to monitor salt intake closely. High sodium can exacerbate fluid retention and elevate blood pressure, counteracting potassium’s beneficial effects if consumed in excess. Secondly, potato bread contains gluten from wheat flour, making it unsuitable for those with celiac disease or non‑celiac gluten sensitivity. Even artisanal potato breads with high potato percentages rely on wheat gluten to provide structure and leavening. Third, while the resistant starch and fiber content can benefit many, individuals with irritable bowel syndrome (IBS) or small intestinal bacterial overgrowth (SIBO) may find that sudden increases in fermentable fibers increase gas and bloating. Introducing such bread gradually and pairing with low-FODMAP foods may mitigate discomfort. Fourth, individuals managing blood sugar — particularly those with type 2 diabetes — should consider portion sizes and pair potato bread with protein and healthy fats to moderate glycemic impact. Although some research suggests lower glycemic responses with resistant starch, the total carbohydrate load remains substantial and can influence blood glucose if consumed in large servings. Overconsumption of energy‑dense bread can contribute to unwanted weight gain if not balanced with overall dietary energy needs. Finally, commercial potato bread often contains added sugars, preservatives, and emulsifiers that may undermine its nutritional advantages. Those prioritizing whole‑food nutrition should scrutinize ingredient lists and opt for products with minimal additives. In summary, while potato bread fits within many healthy eating patterns, careful attention to sodium content, gluten components, and individual digestive responses is essential for optimizing benefits and minimizing risks.

How to Select, Store, and Prepare Bread, Potato

Selecting high‑quality potato bread at the store involves checking both the ingredient list and sensory cues. Look for products where potato ingredients (such as mashed potato, potato flour, or flakes) are listed among the first few ingredients rather than buried deep in the list, suggesting real potato content rather than trace additives. Minimally processed breads will have few added sugars and recognizable whole‑food components. Bread should smell fresh — a mild, slightly sweet aroma without sour or off notes — and the crust should be firm with a soft, moist crumb indicating proper hydration from potato solids. Regarding storage, potato bread’s higher moisture content means it can stale or mold faster than drier breads. At room temperature, wrapped in a breathable container like a paper bag inside a loaf keeper, expect freshness for about 2–3 days before staling signs appear. Refrigeration can extend this to 5–7 days by slowing microbial growth, though it may dry out the bread if not tightly sealed. Commercially produced loaves often contain preservatives that prolong shelf life beyond these windows. For longer storage, freezing is highly effective: up to 3–6 months when sealed in airtight freezer bags with as much air removed as possible. Slicing before freezing allows you to thaw only what you need, preserving texture and minimizing waste. Thaw slices at room temperature or gently warm in a toaster or oven. When preparing potato bread for consumption, avoid high‑heat microwaving which can make the crumb gummy. Instead, toast or warm slices in a conventional oven at moderate temperatures (300–350 °F) for even heat penetration and crisp edges. To preserve nutrients and enhance flavor, pair with proteins and healthy fats such as avocado, nut butters, eggs, and lean meats. When using bread for sandwiches or toast, adding fresh vegetables like tomato, spinach, or bell peppers increases fiber, phytonutrient, and vitamin content of the meal. For bakers making potato bread at home, use cooked and fully cooled potatoes to encourage resistant starch formation, which can elevate the bread’s functional carbohydrate content. Allow dough to rise fully for light texture, and avoid overhandling to maintain moisture and crumb integrity. These selection, storage, and preparation tips help maximize freshness, nutrient retention, and enjoyment.

Best Ways to Eat Bread, Potato

Potato bread’s versatility allows it to fit into a wide array of meals. For breakfast, toasting slices and topping with protein‑rich foods like scrambled eggs, smoked salmon, or Greek yogurt spreads delivers a balanced meal with carbohydrates, fats, and protein — slowing digestion and providing sustained energy. Avocado with a sprinkle of seeds and herbs adds healthy monounsaturated fats and antioxidants. For lunch, use potato bread as the base for sandwiches incorporating lean proteins (e.g., turkey breast), leafy greens, and sliced vegetables to enhance fiber and micronutrient intake. When making toasted sandwiches or paninis, include vegetables such as roasted peppers or spinach to add color and phytonutrients. Potato bread’s moist crumb pairs exceptionally well with soups and stews: dunking slices into broths can soften texture while enhancing satiety and nutrient diversity of the meal. In Mediterranean‑inspired meals, topping toasted slices with hummus, cucumbers, tomatoes, and olives creates a satisfying plant‑centric option. For snack occasions, pairing bread with nut butter and fruit slices provides a blend of complex carbohydrates, healthy fats, and natural sweetness — supporting blood sugar stability and fullness. Avoid heavy butter and sugary spreads as the primary topping, which add calories without balanced nutrition. When incorporating bread into grilled or roasted vegetable platters, use cubes to make whole‑grain croutons lightly tossed with olive oil and herbs, adding textural contrast and complementary flavors. In baking, potato bread can be cubed and used in savory bread puddings with eggs, spinach, and lean cheeses, creating a nutrient‑rich dish that repurposes leftover slices. From a culinary standpoint, experimenting with herb‑infused butters or garlic‑olive oil dips can elevate simple potato bread into a restaurant‑style starter while maintaining control over added fats and sodium. Across these methods, combining potato bread with a variety of proteins, fibers, and colorful plant foods supports balanced meals and preserves nutrients.

Nutrient Absorption: What Helps and Hinders

The nutrients in potato bread interact with other foods and digestive processes in ways that can enhance or hinder their absorption. Pairing potato bread with vitamin C‑rich foods — such as tomatoes or citrus fruits — can enhance iron absorption, particularly non‑heme iron present in plant foods and breads. This is because vitamin C reduces iron to a more absorbable form in the intestine. Including healthy fats like olive oil or avocado alongside bread enhances absorption of fat‑soluble vitamins (A, D, E, K) that may be present in accompanying foods, even though potato bread itself provides minimal fat‑soluble vitamins. Conversely, consuming large amounts of phytic acid‑rich foods (e.g., raw legumes) concurrently with bread may inhibit mineral absorption, particularly zinc and iron. However, soaking or fermenting such foods — or bread itself via sourdough — can reduce phytic acid content and improve bioavailability. The presence of resistant starch and soluble fiber in potato bread supports the growth of beneficial gut microbiota. These microbes ferment resistant starch into short‑chain fatty acids (SCFAs), which play a role in gut health and may influence systemic inflammation and metabolic signaling. However, individuals with sensitive digestion may experience gas or bloating if they suddenly increase their intake of fermentable fibers; gradually increasing fiber and pairing with tolerated foods can mitigate discomfort. The overall meal composition also affects glycemic response: combining potato bread with proteins and fats slows gastric emptying, leading to a more gradual postprandial glucose rise compared with consuming bread alone. This can support better blood sugar control, especially in populations managing insulin sensitivity. Avoiding high‑sugar beverages or simple carbohydrates in the same meal prevents rapid glucose excursions that could overshadow the slower‑digesting components of potato bread. By considering these pairing strategies, nutrient absorption from potato bread and associated foods can be optimized for health outcomes.

Bread, Potato for Specific Diets

Bread, potato fits into many dietary patterns with thoughtful adjustments. For vegan and vegetarian diets, it’s inherently compatible, providing plant‑based carbohydrate, fiber, and micronutrients; pairing with legumes or seeds improves its protein quality. In keto or very low‑carbohydrate diets, potato bread is not typically compatible due to its high carbohydrate content; however, substituting small portions within a carbohydrate cycle may be acceptable for targeted energy needs in athletes. For paleo diets, traditional potato bread is not compliant because it includes wheat flour; grain‑free variants using cassava or almond flour could be substituted for similar texture. Whole30 principles also exclude grains, so typical potato bread is not compatible, but dumpling‑style paleo breads may mimic its role in meals. Individuals following low‑FODMAP diets should approach potato bread with caution depending on other ingredients, as wheat flour is high in FODMAPs; certified low‑FODMAP grain alternatives would be safer choices. For those managing diabetes, moderate portions paired with protein and fiber‑rich vegetables can help mitigate glycemic impact; monitoring blood glucose responses with a glucometer after consuming potato bread helps tailor personal tolerance. Heart‑healthy diets benefit from potato bread when chosen with low sodium and paired with lean proteins, healthy fats, and abundant vegetables to balance sodium‑to‑potassium ratios. These diet‑specific strategies help integrate potato bread into balanced meal planning while respecting individual health goals.

❤️ Health Benefits

May support glycemic control

Resistant starch formation slows digestion and glucose absorption

Evidence: moderate

Supports digestive health

Fermentation of resistant starch produces SCFAs that nourish gut lining

Evidence: moderate

Provides electrolyte balance

High potassium content supports fluid balance and muscle function

Evidence: strong

Helps maintain nutrient adequacy

Supply of B vitamins and minerals supports daily requirements

Evidence: strong

⚖️ Comparisons

Vs. White bread

Bread, potato generally has higher fiber and potassium than white bread but similar calories.

Vs. Whole wheat bread

Whole wheat bread typically provides more fiber but less potassium than potato bread.

Vs. Rye bread

Rye offers different phytonutrients like alkylresorcinols, while potato bread delivers more minerals.

🧊 Storage Guide

🏠
Counter
2–3 days
❄️
Fridge
5–7 days
🧊
Freezer
3–6 months
⚠️ Signs of Spoilage:
  • smell: sour or off odor
  • visual: mold spots (green/black/white)
  • texture: slimy or excessively dry crumb
  • when to discard: visible mold regardless of location

👥 Special Considerations

elderly

Why: Helps maintain electrolyte balance and nutrient intake.

Recommendation: Include to support energy needs and potassium for muscle function.

athletes

Why: Provides energy and potassium to replace electrolytes.

Recommendation: Use as part of carbohydrate replenishment post‑exercise.

children

Why: Supports growth with carbohydrates and micronutrients.

Recommendation: Offer age‑appropriate portions and pair with nutrient‑dense foods.

pregnancy

Why: Provides folate and energy supporting fetal development.

Recommendation: Include moderate portions with protein and vegetables.

breastfeeding

Why: Supports energy and micronutrient needs.

Recommendation: Balanced consumption with varied nutrients.

🔬 Detailed Nutrition Profile (USDA)

Common Portions

1.00 slice (32.00g)
Nutrient Amount Unit
Water 33.5500 g
Energy 266.0000 kcal
Energy 1115.0000 kJ
Protein 12.5000 g
Total lipid (fat) 3.1300 g
Ash 3.7600 g
Carbohydrate, by difference 47.0700 g
Fiber, total dietary 6.3000 g
Total Sugars 9.3800 g
Calcium, Ca 188.0000 mg
Iron, Fe 2.2500 mg
Magnesium, Mg 28.0000 mg
Phosphorus, P 369.0000 mg
Potassium, K 718.0000 mg
Sodium, Na 375.0000 mg
Zinc, Zn 1.4400 mg
Copper, Cu 0.0940 mg
Manganese, Mn 0.2530 mg
Selenium, Se 9.5000 µg
Vitamin C, total ascorbic acid 0.0000 mg
Thiamin 0.1880 mg
Riboflavin 0.1060 mg
Niacin 1.2500 mg
Pantothenic acid 0.8170 mg
Vitamin B-6 0.2320 mg
Folate, total 126.0000 µg
Folic acid 33.0000 µg
Folate, food 92.0000 µg
Folate, DFE 149.0000 µg
Choline, total 18.4000 mg
Vitamin B-12 0.1500 µg
Vitamin B-12, added 0.0000 µg
Vitamin A, RAE 24.0000 µg
Retinol 24.0000 µg
Carotene, beta 6.0000 µg
Carotene, alpha 0.0000 µg
Cryptoxanthin, beta 0.0000 µg
Vitamin A, IU 89.0000 IU
Lycopene 0.0000 µg
Lutein + zeaxanthin 17.0000 µg
Vitamin E (alpha-tocopherol) 0.4700 mg
Vitamin E, added 0.0000 mg
Vitamin D (D2 + D3), International Units 2.0000 IU
Vitamin D (D2 + D3) 0.1000 µg
Vitamin K (phylloquinone) 6.8000 µg
Fatty acids, total saturated 0.0000 g
SFA 4:0 0.0000 g
SFA 6:0 0.0000 g
SFA 8:0 0.0000 g
SFA 10:0 0.0000 g
SFA 12:0 0.0000 g
SFA 14:0 0.0000 g
SFA 15:0 0.0000 g
SFA 16:0 0.0000 g
SFA 17:0 0.0000 g
SFA 18:0 0.0000 g
SFA 20:0 0.0000 g
SFA 22:0 0.0000 g
Fatty acids, total monounsaturated 0.0000 g
MUFA 14:1 0.0000 g
MUFA 15:1 0.0000 g
MUFA 16:1 0.0000 g
MUFA 17:1 0.0000 g
MUFA 18:1 0.0000 g
MUFA 20:1 0.0000 g
MUFA 22:1 0.0000 g
Fatty acids, total polyunsaturated 0.0000 g
PUFA 18:2 0.0000 g
PUFA 18:3 0.0000 g
PUFA 18:4 0.0000 g
PUFA 20:2 n-6 c,c 0.0000 g
PUFA 20:3 0.0000 g
PUFA 20:4 0.0000 g
PUFA 20:5 n-3 (EPA) 0.0000 g
PUFA 22:5 n-3 (DPA) 0.0000 g
PUFA 22:6 n-3 (DHA) 0.0000 g
Fatty acids, total trans 0.0000 g
Cholesterol 0.0000 mg
Tryptophan 0.0810 g
Threonine 0.2240 g
Isoleucine 0.2680 g
Leucine 0.4400 g
Lysine 0.3110 g
Methionine 0.1120 g
Cystine 0.0860 g
Phenylalanine 0.2850 g
Tyrosine 0.2130 g
Valine 0.3050 g
Arginine 0.2650 g
Histidine 0.1430 g
Alanine 0.2430 g
Aspartic acid 0.5330 g
Glutamic acid 1.3520 g
Glycine 0.2040 g
Proline 0.4790 g
Serine 0.2750 g
Alcohol, ethyl 0.0000 g
Caffeine 0.0000 mg
Theobromine 0.0000 mg

Source: USDA FoodData Central (FDC ID: 167943)

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