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Al222
Al222 (25123 pt) 2025-Oct-28 07:53

Carrot puree (Daucus carota subsp. sativus)

Description
• Vegetable preparation from sound, mature carrots, cooked and milled/refined to a homogeneous texture (smooth or rustic), often deaerated and heat-stabilized.
Sweet–earthy sensory profile; orange color due to carotenoids (mainly β-carotene).
• Used as a base ingredient in baby foods, soups, sauces, bakery, beverages, and ready meals.

Caloric value (per 100 g)
• “Plain” products with no added sugars: ~30–45 kcal; carbohydrates ~7–10 g (sugars 3–5 g), fiber ~2–3 g, protein ~0.6–1.0 g, fat ~0.1–0.3 g.
• Values depend on °Brix (solids) and any dilution/additions.

Key constituents
Carotenoids: β-carotene (provitamin A), α-carotenelutein (stability affected by light/oxygen).
• Dietary fiber: pectins/hemicelluloses (viscosity and satiety).
• Sugars: sucrose, glucose, fructose (natural sweetness).
Organic acids: malic, citric; typical pH ~5.2–6.2.
• Phenolics: chlorogenic acid (trace).
Minerals: potassium dominant; small calcium/magnesium; sodium low unless added.
Quality parameters: °Brix/TSS, color L, a, b***, viscosity (e.g., Bostwick), particle size, pH, high aw (requires adequate heat process).

Production process
Prep: selection, washing, optional peeling; sizing/slicing.
• Blanching/cooking: enzyme inactivation, tissue softening.
• Grinding/refining: milling and sieving for uniformity (remove coarse fiber).
• Deaeration: lower dissolved O₂ to protect carotenoids.
Stabilization: pasteurization or sterilization (retort/aseptic); optional mild acidification.
Packaging: hot-fill or aseptic in barrier packs; full traceability under GMP/HACCP.

Sensory and technological properties
• Color/aroma: intense orange; sweet and earthy; color fades with oxidation/photolysis.
Rheology: viscoelastic, often thixotropic; fiber builds body and limits syneresis.
Functionality: contributes natural sweetness, structure (pectins), moisture, and color; good satiety.

Food uses
• Soups, purées, baby foods (single or blended).
• Sauces/bases for ready meals; fillings; vegetable gnocchi/doughs.
• Savory bakery (flatbreads, crackers) for color/softness; vegetable smoothies.
• Inclusion: from functional share to principal phase (≈5–40% depending on application).

Nutrition and health
Provitamin Aβ-carotene supports vitamin A needs (conversion varies by status).
Fiber aids satiety and bowel regularity.
Fat negligible; generally low sodium.
• Adding a small lipid phase in recipes improves carotenoid absorption.
• Suitable for low-fat and reduced-calorie formulations; age-appropriate textures for infants.

Quality and specifications (typical topics)
°Brix/TSS, pH, viscosity within spec; total carotenoids (mg/100 g) as marker.
Color L*, a*, b*; absence of oxidation (off-flavor/browning).
• Microbiology: pathogen-free; compliant total count; validated thermal process/shelf-life.
Sensory: balanced sweet–earthy profile; no bitterness.

Storage and shelf-life
• Closed aseptic packs: store cool, protected from light/oxygen.
• After opening: refrigerate 0–4 °C and use within 2–3 days.
• Avoid temperature/light cycling that degrades carotenoids; apply FIFO.

Allergens and safety
Carrot is not a major allergen; possible reactions in those sensitive to Apiaceae (cross-reactivity).
• Check for celery or other allergenic vegetables in blends/recipes.
• Hygiene per HACCP; intact, food-grade packaging.

INCI functions in cosmetics
• Typical entries: Daucus Carota Sativa (Carrot) Root Extract, Daucus Carota Sativa (Carrot) JuiceBeta-Carotene.
• Roles: antioxidant/skin conditioning, subtle color tone support (yellow–orange) in leave-ons; use extracts/juices rather than purée “as is”.

Troubleshooting
Color fading: oxygen/light → deaerate, barrier packs, minimize exposure.
• Phase separation/syneresis: insufficient fiber or coarse grind → finer sieving, pectins/homogenization.
• Bitterness: overcooking/oxidation → gentler heat curve, suitable natural antioxidants.
• Grainy texture: under-refining → finer mesh or homogenization.
Out-of-range pH: stability/micro risk → adjust with permitted acidulants; validate process.

Sustainability and supply chain
Upcycling peels/tops for feed, compost, or carotenoid/fiber extracts.
• Effluent management to BOD/COD targets; heat recovery in thermal steps.
Recyclable packaging; optimized cold logistics; GMP/HACCP across the chain.

Conclusion
Carrot purée offers natural color, sweetness, and structure with solid nutritional credentials (provitamin A, fiber). Application success depends on raw materials, refining, deaeration, thermal process, and protection from light/oxygen; with proper specs it is stable and repeatable.


Mini-glossary
°Brix — Percentage of TSS; guides concentration and perceived sweetness.
• TSS — Total soluble solids: sugars/acids/salts; correlates with density and yield.
• pH — Acidity/alkalinity index; affects microbial stability and color.
• aw — Water activity: high in purées; necessitates adequate heat stabilization.
Bostwick — Empirical measure of spread/flow for purées (lower = thicker).
GMP — Good Manufacturing Practice: hygiene and process-consistency standards.
HACCPHazard Analysis and Critical Control Points: preventive food-safety system with defined CCP.
BOD/COD — Biochemical/Chemical Oxygen Demand: effluent load indicators for wastewater impact.
FIFOFirst In, First Out: stock rotation using older lots first.


Studies

Carrot is one of the major vegetables rich in bioactive compounds like carotenoids and dietary fibers with appreciable levels of several other functional components having significant health-promoting properties. Carrot pomace, containing about 50% β-carotene, can be profitably utilized for the supplementation of products like cake, bread, and biscuits.

Beyond lending truth to the old adage that carrots are good for eyes, the carotenoids, polyphenols, and vitamins present in carrots act as antioxidants, anticarcinogens, and immunoenhancers. Anti-diabetic, cholesterol and cardiovascular disease-lowering, anti-hypertensive, hepatoprotective, renoprotective, and wound healing benefits of carrots have also been reported.

Consumption of carrots is beneficial to our digestive system as an intestinal balancer because some of its compounds possess high antioxidant power (1).

It contains falcarinol, a natural component discovered only in 2005 that acts as an anti-tumor agent (2).

It also contains Beta carotene, a natural component that turns into vitamin A when it is assimilated into the human body.

Its properties are not altered if it is prepared as juice or lightly boiled or fried.

In addition to the common orange carrot, there is also the black, white, purple and yellow carrot.

Carrot studies

References_________________________________________________________________________

(1) Iorizzo M, Curaba J, Pottorff M, Ferruzzi MG, Simon P, Cavagnaro PF. Carrot Anthocyanins Genetics and Genomics: Status and Perspectives to Improve Its Application for the Food Colorant Industry. Genes (Basel). 2020 Aug 7;11(8):906. doi: 10.3390/genes11080906.  

Abstract. Purple or black carrots (Daucus carota ssp. sativus var. atrorubens Alef) are characterized by their dark purple- to black-colored roots, owing their appearance to high anthocyanin concentrations. In recent years, there has been increasing interest in the use of black carrot anthocyanins as natural food dyes. Black carrot roots contain large quantities of mono-acylated anthocyanins, which impart a measure of heat-, light- and pH-stability, enhancing the color-stability of food products over their shelf-life. The genetic pathway controlling anthocyanin biosynthesis appears well conserved among land plants; however, different variants of anthocyanin-related genes between cultivars results in tissue-specific accumulations of purple pigments. Thus, broad genetic variations of anthocyanin profile, and tissue-specific distributions in carrot tissues and organs, can be observed, and the ratio of acylated to non-acylated anthocyanins varies significantly in the purple carrot germplasm. Additionally, anthocyanins synthesis can also be influenced by a wide range of external factors, such as abiotic stressors and/or chemical elicitors, directly affecting the anthocyanin yield and stability potential in food and beverage applications. In this study, we critically review and discuss the current knowledge on anthocyanin diversity, genetics and the molecular mechanisms controlling anthocyanin accumulation in carrots. We also provide a view of the current knowledge gaps and advancement needs as regards developing and applying innovative molecular tools to improve the yield, product performance and stability of carrot anthocyanin for use as a natural food colorant.

(2) Young JF, Duthie SJ, Milne L, Christensen LP, Duthie GG, Bestwick CS. Biphasic effect of falcarinol on caco-2 cell proliferation, DNA damage, and apoptosis. J Agric Food Chem. 2007 Feb 7;55(3):618-23. doi: 10.1021/jf0616154. PMID: 17263451.

Abstract. The polyacetylene falcarinol, isolated from carrots, has been shown to be protective against chemically induced colon cancer development in rats, but the mechanisms are not fully understood. In this study CaCo-2 cells were exposed to falcarinol (0.5-100 microM) and the effects on proliferation, DNA damage, and apoptosis investigated. Low-dose falcarinol exposure (0.5-10 microM) decreased expression of the apoptosis indicator caspase-3 concomitantly with decreased basal DNA strand breakage. Cell proliferation was increased (1-10 microM), whereas cellular attachment was unaffected by <10 microM falcarinol. At concentrations above 20 microM falcarinol, proliferation of CaCo-2 cells decreased and the number of cells expressing active caspase-3 increased simultaneously with increased cell detachment. Furthermore, DNA single-strand breakage was significantly increased at concentrations above 10 microM falcarinol. Thus, the effects of falcarinol on CaCo-2 cells appear to be biphasic, inducing pro-proliferative and apoptotic characteristics at low and high concentrations of falcarinol, respectively.

Kobaek-Larsen M, Christensen LP, Vach W, Ritskes-Hoitinga J, Brandt K. Inhibitory effects of feeding with carrots or (-)-falcarinol on development of azoxymethane-induced preneoplastic lesions in the rat colon. J Agric Food Chem. 2005 Mar 9;53(5):1823-7. doi: 10.1021/jf048519s. PMID: 15740080.

Abstract. The effects of intake of dietary amounts of carrot or corresponding amounts of (-)-(3R)-falcarinol from carrots on development of azoxymethane (AOM)-induced colon preneoplastic lesions were examined in male BDIX rats. Three groups of eight AOM-treated rats were fed the standard rat feed Altromin supplemented with either 10% (w/w) freeze-dried carrots with a natural content of 35 mug falcarinol/g, 10% maize starch to which was added 35 mug falcarinol/g purified from carrots, or 10% maize starch (control). After 18 weeks, the animals were euthanized and the colon was examined for tumors and aberrant crypt foci (ACF), which were classified into four size classes. Although the number of small ACF was unaffected by the feeding treatments, the numbers of lesions as a function of increasing size class decreased significantly in the rats that received one of the two experimental treatments, as compared with the control treatment. This indicates that the dietary treatments with carrot and falcarinol delayed or retarded the development of large ACF and tumors. The present study provides a new perspective on the known epidemiological associations between high intake of carrots and reduced incidence of cancers.