FERRIC PEPTONATE
FERRIC PEPTONATE is a food additive ingredient listed in the FDA Substances Added to Food inventory, used as a nutrient supplement in certain products.
What It Is
FERRIC PEPTONATE is an ingredient recognized in the United States as an additive listed in the FDA Substances Added to Food inventory, where it is categorized for use as a nutrient supplement. According to the FDA inventory record, the substance has the Chemical Abstract Service (CAS) Registry Number 977089-86-3 and is identified by the same name, FERRIC PEPTONATE, with the technical function of nutrient supplementation in food formulations. Its inclusion in the FDA inventory indicates that it has been recorded as a substance used in or on food, though this listing alone does not imply specific regulatory approval for defined uses or permitted levels in finished food products. This distinction is critical for a clear understanding of what FERRIC PEPTONATE is and how it is treated by regulatory frameworks. FERRIC PEPTONATE is not widely discussed in publicly accessible scientific literature, and its chemical composition appears to be associated with iron complexed with peptide fragments derived from peptone sources, which are partially hydrolyzed proteins. The term "peptonate" suggests a chelated or complexed structure where iron is bonded with organic peptide ligands, forming a compound that may be intended to enhance iron delivery or bioavailability in a food matrix. However, specific structural details and functional characterization are not readily available in open regulatory or chemical databases, and information on its behavior in food systems necessitates cautious interpretation based on analogous iron compounds. The context of nutrient supplements in foods encompasses ingredients that provide essential vitamins or minerals, including iron. Iron is a required micronutrient for human health, involved in oxygen transport and cellular processes. FERRIC PEPTONATE falls within this broader class of iron-containing substances that may be incorporated into foods or dietary formulations to supply iron, though precise regulatory designation, use levels, or safety data for this specific compound are undefined in publicly accessible regulatory documentation. Its presence in the FDA inventory underscores that the ingredient has been noted in ingredient lists or food additive inventories rather than that it has a fully codified regulatory status or usage profile.
How It Is Made
Understanding how FERRIC PEPTONATE is made requires interpreting its likely chemical origins and manufacturing context. Generally, peptonates are formed by reacting a metal ion, in this case ferric iron (iron in the +3 oxidation state), with peptone, which is a mixture of soluble protein hydrolysates obtained from the partial digestion of protein sources. Peptones are complex mixtures of peptides, amino acids, and small peptides derived from enzymatic or acid hydrolysis of proteins, and they serve as ligands that can bind metal ions, creating a chelated or complexed form of the metal. While there is no authoritative publicly available monograph describing a standardized industrial process specifically for FERRIC PEPTONATE, analogous processes for preparing metal-peptone complexes involve dissolving iron salts, such as ferric chloride or ferric citrate, in aqueous solution and introducing peptone under controlled pH and temperature conditions to facilitate chelation. The described process for iron-peptonates often includes the initial dissolution of an iron (III) source in water, followed by gradual addition of peptone with agitation, with pH maintained within a range that favors complex formation rather than precipitation of iron hydroxides or other insoluble iron species. In some cases, auxiliary agents may be used to enhance solubility or prevent oxidation state changes, though specific validated manufacturing protocols for FERRIC PEPTONATE are not widely d in publicly accessible food regulatory specifications. Trade sources that list ferric peptonate products sometimes note that the compound contains a proportion of iron in nonionic form and is made water-soluble, possibly through the addition of water-solubilizing agents, though individual manufacturing details are proprietary to producers. The absence of widely published manufacturing standards or Food Chemicals Codex entries for FERRIC PEPTONATE suggests that its production methods are specific to suppliers and may vary, with quality controls applied at the point of formulation for intended food applications. When produced for laboratory or industrial use, safety data sheets (SDS) and supplier specifications outline handling conditions but do not necessarily provide comprehensive food-grade manufacturing procedures. In practice, food ingredient manufacturers seeking to use FERRIC PEPTONATE would need to develop and validate their own procedures for ensuring consistent quality and compliance with any applicable regulatory standards. The broader context for food additive manufacture emphasizes good manufacturing practices, adherence to hygiene and purity standards, and documentation of raw material sources, but for FERRIC PEPTONATE specifically, publicly accessible manufacturing details remain limited.
Why It Is Used In Food
FERRIC PEPTONATE is categorized functionally as a nutrient supplement, which indicates that it is incorporated into food formulations with the intention of delivering nutritional value, particularly related to iron content. Iron is an essential micronutrient critical for physiological processes such as hemoglobin formation, oxygen transport, and enzymatic functions. In food science, iron supplementation addresses dietary deficiencies and helps ensure that populations receive adequate iron intake from fortified foods. Using iron-containing ingredients in foods can support nutritional goals, especially in products targeted for populations with higher iron requirements or at risk of deficiency. The specific use of FERRIC PEPTONATE in food may be driven by its property as a chelated form of iron, where the iron ion is bound to peptone-derived ligands, potentially improving solubility or stability in certain food matrices compared with simple iron salts that may precipitate or cause undesirable organoleptic effects. Chelated iron forms are sometimes preferred in complex formulations because they may reduce the risk of metallic taste, oxidation reactions, or interactions with other food components. However, the technical evidence supporting these advantages for FERRIC PEPTONATE specifically is limited in publicly available sources, and it is not widely referenced in standard food additive compendia. In the context of food formulation, nutrient supplements like FERRIC PEPTONATE may be selected for incorporation into products where fortification with iron is desirable to meet nutritional labeling claims or regulatory fortification requirements. These products can range from bakery items to beverage mixes, cereals, or nutritional bars. The choice of a particular form of iron supplement reflects a balance of bioavailability, impact on taste and appearance, cost, and regulatory acceptability. In practice, food scientists evaluate iron sources in terms of how they will behave during processing, how they interact with other ingredients, and whether they remain stable throughout shelf life. While FERRIC PEPTONATE offers one potential iron source, food developers must consider alternative iron compounds and select the form that best fits the overall product design and nutritional goals for their target consumers.
Adi Example Calculation
Because no specific acceptable daily intake (ADI) for FERRIC PEPTONATE has been published in accessible regulatory databases, it is not possible to perform a calculation using a formal ADI value for this compound. However, to illustrate how ADI calculations are generally performed for nutrient supplements, a hypothetical scenario using a generic iron ADI concept can be described. Suppose a regulatory body has established an ADI for elemental iron from fortified sources as a guidance point to ensure that daily intake does not exceed a level considered safe over a lifetime. If the hypothetical ADI for elemental iron were set at a certain milligram per kilogram body weight per day, the calculation for a person of a given body weight would involve multiplying the ADI value by body weight to determine a safe daily intake limit. For example, if an authoritative regulator were to set an ADI for elemental iron at a hypothetical value X mg per kilogram of body weight per day (this value is for illustrative purposes only and not an actual ADI for FERRIC PEPTONATE), an adult weighing 70 kilograms would have a calculated acceptable intake of X times 70. The product of this multiplication would represent the maximum daily intake of elemental iron that could theoretically be consumed without exceeding the guideline. However, because no specific ADI for FERRIC PEPTONATE has been identified in major public food additive safety databases, the hypothetical example is purely illustrative of the calculation method used by regulators when ADIs are established. A real-world application would require reference to an authoritative ADI value and clear specification of the form of iron to which the ADI applies. In the absence of such a specific ADI for FERRIC PEPTONATE, fortification and intake considerations are typically guided by nutrition science recommendations for iron and the overall contribution of all dietary iron sources.
Safety And Health Research
Scientific research on the safety and health implications of FERRIC PEPTONATE specifically is limited in publicly accessible literature. As a nutrient supplement ingredient, FERRIC PEPTONATE falls within the broader class of iron-containing compounds that contribute dietary iron when incorporated into foods. Iron is an essential nutrient that plays a fundamental role in oxygen transport, energy metabolism, and other physiological functions. At the same time, iron compounds can pose safety considerations at high exposure levels, as excessive iron intake may lead to gastrointestinal discomfort or oxidative stress due to free iron catalyzing reactive oxygen species formation. The safety assessment of iron-containing additives generally involves evaluating their bioavailability, potential to release free iron ions, interaction with other nutrients, and effects on sensitive populations. Regulatory authorities and scientific bodies that assess food additives typically review toxicological data, including acute toxicity, chronic exposure studies, genotoxicity, and reproductive toxicity endpoints, to establish safe levels of intake. For many well-characterized iron compounds used in food fortification, such as ferrous sulfate or ferric citrate, there is a body of scientific evidence supporting their safety and bioavailability. However, for FERRIC PEPTONATE specifically, there are no widely published authoritative evaluations detailing its toxicology, bioavailability, or long-term exposure effects in humans or animal models that are accessible in standard regulatory databases. In the context of food additive safety research, the Joint FAO/WHO Expert Committee on Food Additives (JECFA) and similar national bodies assess compounds to derive acceptable daily intake (ADI) levels when sufficient data are available. A dedicated JECFA entry or monograph for FERRIC PEPTONATE was not identified in routine searches of the JECFA food additive database by CAS number or name, implying that an official, detailed safety evaluation with established ADI is not currently published in the accessible JECFA database. Nevertheless, the general principles of iron nutrition and safety underscore that iron compounds used in food fortification are evaluated for their contribution to total dietary iron intake and potential interactions with physiological iron regulation mechanisms. Without specific toxicological or clinical research available for FERRIC PEPTONATE, statements about its health effects must be framed cautiously. Its inclusion in food additive inventories suggests that the ingredient has been used in food contexts, but comprehensive safety data, including controlled studies on absorption, metabolism, and chronic effects, are not readily found in public sources. Therefore, a nuanced understanding of safety involves recognizing the essential role of iron in nutrition while acknowledging that detailed, compound-specific evidence for FERRIC PEPTONATE is limited and would benefit from further study.
Regulatory Status Worldwide
The regulatory status of FERRIC PEPTONATE varies by jurisdiction and depends on how food additive inventories and approvals are interpreted by national authorities. In the United States, FERRIC PEPTONATE is listed in the FDA’s Substances Added to Food inventory (formerly known as EAFUS), where it is recorded with its CAS Registry Number 977089-86-3 and identified for its technical effect as a nutrient supplement. The inclusion in the FDA inventory means that the substance has been reported as an ingredient used in food, but this listing by itself does not constitute a formal regulation with specified use levels or approved conditions. The FDA inventory is an informational database that tracks ingredients added to food rather than a codified list of allowed additives with regulatory specifications. In many jurisdictions, including the European Union, food additive regulations define lists of permitted additives with assigned E-numbers and specific purity criteria. At the time of writing, an E-number designation for FERRIC PEPTONATE is not readily found in publicly accessible EU food additive lists, suggesting that this specific compound may not be explicitly authorized under the EU’s consolidated list of food additives or that it has not been widely evaluated for that purpose. Regulatory frameworks such as those maintained by the European Food Safety Authority (EFSA) typically require detailed safety data and specifications before a substance is added to the permitted list. Internationally, the Joint FAO/WHO Expert Committee on Food Additives (JECFA) provides scientific evaluations and specifications for food additives, which are often used by codex committees and national regulators to inform policy. The global JECFA database allows searching by additive name or CAS number to determine if a compound has been formally evaluated. At present, there is no specific publicly accessible JECFA evaluation entry for FERRIC PEPTONATE retrieved through such searches, indicating that it may not have a dedicated JECFA specification or established acceptable daily intake in the database. However, the JECFA database itself provides a framework for food additive evaluations and may include related iron compounds that have been assessed for safety. Because explicit regulatory approvals, permitted use levels, and safety evaluations for FERRIC PEPTONATE are not readily found in open regulatory texts or additive lists outside of the inventory listing, its regulatory status should be understood as context-dependent. Inclusion in ingredient inventories signals recognition of the substance’s use in food systems but does not equate to blanket approval with defined use conditions. For manufacturers and regulators considering its use, consultation of current national and regional food additive regulations and safety assessments is essential.
Taste And Functional Properties
The taste and functional properties of FERRIC PEPTONATE in food are informed by general characteristics of iron-containing nutrient supplements and chelated iron compounds. Iron salts and chelates can impart flavors ranging from metallic to off-notes if present at significant concentrations, particularly in sensitive food matrices. Chelated forms, where iron is complexed with organic ligands such as peptides, are often chosen in food formulation to mitigate undesirable sensory impacts compared with simple inorganic iron salts. The peptide components derived from peptones may help mask the metallic taste associated with free iron ions, though sensory impacts depend on formulation context, concentration, and interactions with other ingredients. From a functional standpoint, FERRIC PEPTONATE provides a source of iron that can contribute to the nutritional profile of fortified foods. The peptide ligands and the chelated structure can influence solubility and stability in aqueous environments, which can be advantageous in liquid or semi-liquid products where insoluble iron compounds might precipitate. Chelation can also influence the way iron interacts with proteins, carbohydrates, and other components in a food matrix, potentially reducing the likelihood of adverse reactions such as color changes or oxidation of fats. However, detailed published sensory profiles or physico-chemical evaluations of FERRIC PEPTONATE specifically are scarce in open scientific and regulatory sources. As with other iron supplements, formulation scientists often conduct product-specific sensory testing to assess whether an iron source contributes any off-flavors or textural changes. Heat stability and pH sensitivity are other functional considerations; iron compounds can catalyze oxidative reactions under certain conditions, which may impact shelf life or quality. The peptide ligands in FERRIC PEPTONATE could modulate these effects, but empirical data is necessary for product-specific conclusions. Overall, functional properties of FERRIC PEPTONATE must be evaluated in the context of specific applications, with attention to sensory impacts, solubility, and interactions with other food components.
Acceptable Daily Intake Explained
An acceptable daily intake (ADI) is a regulatory concept used by food safety authorities to describe the estimated amount of a substance that can be consumed daily over a lifetime without appreciable risk. ADIs are derived from toxicological studies and incorporate safety factors to account for uncertainties in data. For many food additives and nutrient supplements, an ADI provides guidance on safe exposure based on available evidence. In the case of FERRIC PEPTONATE, no specific ADI has been identified in major public food additive databases or safety evaluations accessible through regulators’ online resources by CAS number or name. This absence suggests that a formal ADI for FERRIC PEPTONATE has not been established by bodies like the Joint FAO/WHO Expert Committee on Food Additives (JECFA) or prominently published in authoritative documents. Without a published ADI for this specific compound, it is not possible to present a numeric value tied to a direct regulatory evaluation. When ADIs are established for iron compounds used in food fortification, they take into account typical dietary iron needs, bioavailability, and the potential for excessive iron intake. Iron itself is an essential micronutrient with recommended dietary allowances set by nutrition authorities, and typical iron fortification aims to help populations meet their nutritional requirements. However, FERRIC PEPTONATE’s lack of a published ADI means that its safety margin in terms of daily consumption has not been explicitly quantified in public regulatory monographs. In such cases, regulatory authorities and manufacturers may rely on general iron intake recommendations and compositional data of the additive to ensure that total dietary iron exposure remains within recognized safe ranges established for the population. The absence of a specific ADI highlights the difference between nutrient recommendations and regulatory safety evaluations for additives. Nutrient reference values, such as Recommended Dietary Allowances (RDAs) or Population Reference Intakes (PRIs), are developed by health organizations to guide adequate intake levels for essential nutrients, including iron. These values are not ADIs in the regulatory sense but provide context for what typical daily intake levels are considered sufficient or safe. For a compound like FERRIC PEPTONATE, which is used as a nutrient supplement ingredient, aligning its contribution to total iron intake with established nutrition guidelines ensures that fortified foods help consumers achieve recommended iron consumption without exceeding safe thresholds. This approach underscores the importance of holistic dietary assessment rather than reliance on compound-specific ADIs when specific regulatory values are unavailable.
Comparison With Similar Additives
FERRIC PEPTONATE can be compared with several other iron-containing additives and nutrient supplement compounds commonly used in food fortification to understand its characteristics in context. Iron fortification agents are chosen based on bioavailability, sensory impact, stability, and regulatory acceptance. Some widely used iron fortificants include ferrous sulfate, ferric citrate, and iron amino acid chelates. Ferrous sulfate is a commonly used iron fortificant with well-established bioavailability and a substantial evidence base supporting its use in food fortification and dietary supplements. It is highly soluble in water and provides a readily bioavailable source of iron. However, ferrous sulfate can impart metallic taste and may interact with other food components, influencing color and flavor in some products. Its use is supported by many regulatory authorities and nutrition guidelines because its safety and effectiveness in addressing iron deficiency are well documented. Ferric citrate is another iron compound used for fortification, offering moderate solubility and a relatively neutral sensory profile. Its ferric form can make it less reactive with certain food components compared with ferrous salts, and it is used in products where minimizing taste alteration is important. Regulatory frameworks often recognize ferric citrate as an acceptable fortificant, with specifications and purity criteria detailed in food additive lists. Iron amino acid chelates represent a class of iron fortificants where iron is complexed with amino acids or peptides, similar in concept to how FERRIC PEPTONATE might be structured. These chelates are designed to enhance iron bioavailability while minimizing negative impacts on taste and food quality. They are often marketed for specialized nutritional products and may have defined regulatory status in some regions. Compared with simple inorganic iron salts, chelated forms tend to be more stable in complex food systems and may be less prone to causing oxidation of other ingredients. FERRIC PEPTONATE fits conceptually into the category of iron chelates, where iron is bound to peptide fragments, potentially improving solubility and sensory properties. However, detailed regulatory specifications and safety evaluations for FERRIC PEPTONATE itself are not prominently published, whereas other chelated iron compounds may have clearer regulatory status and evidence of safety. This comparison highlights how different iron fortificants balance bioavailability, sensory quality, and regulatory acceptance. Producers selecting an iron additive must weigh these factors against formulation goals and regulatory requirements for the markets in which their products will be sold.
Common Food Applications Narrative
FERRIC PEPTONATE, categorized as a nutrient supplement, is conceptually associated with food fortification, particularly in products where iron enrichment is desirable. Iron is an essential nutrient that many food manufacturers aim to include in fortified foods to address dietary iron needs in various populations. Although specific standardized uses of FERRIC PEPTONATE are not widely published in open regulatory monographs, the inclusion of this compound in ingredient inventories suggests that it may appear in formulations designed for nutritional enhancement. In practice, food products fortified with iron include breakfast cereals, nutritional bars, meal replacements, powdered beverage mixes, baby foods designed for weaning, fortified pastas, and enriched baked goods. These categories often feature iron in a form that balances bioavailability with minimal sensory impact. For example, in a fortified breakfast cereal, an iron source must withstand processing conditions, maintain color and taste profiles preferred by consumers, and contribute meaningfully to labeled nutrient content. Powdered beverage mixes and nutritional bars similarly require iron sources that blend seamlessly with other ingredients without precipitating or causing oxidation of fats. FERRIC PEPTONATE could theoretically be used in liquid formulations such as ready-to-drink nutritional beverages or fortified juice drinks where solubility and stability are important. In such products, an iron-chelate might offer advantages over simple iron salts that may precipitate or interact negatively with flavoring agents. Additionally, powdered mixes intended for reconstitution, such as meal replacement shakes or fortified drink powders, may incorporate chelated iron sources to enhance iron delivery while minimizing taste alterations once the powder is dissolved. Another area where nutrient supplements like FERRIC PEPTONATE could be seen is in specialized nutrition products, such as those formulated for athletes, elderly consumers, or individuals with higher nutrient requirements due to physiological conditions. These products often combine multiple vitamins and minerals in a bioavailable form, and iron is a common component due to its role in energy metabolism. Fortified dairy alternatives, such as plant-based milks or yogurts, are also categories where iron supplementation may be pursued to approximate the nutrient profile of traditional dairy products. Across these broad categories, the choice of iron source is driven by a combination of nutritional goals, sensory quality, manufacturing requirements, and regulatory considerations. Manufacturers must evaluate how an ingredient like FERRIC PEPTONATE behaves during production, how it affects the final product’s taste and texture, and how it contributes to meeting nutrient content claims on labels. While specific published use guidelines for FERRIC PEPTONATE are limited, the rationale for iron supplementation in fortified foods is well established in food science and nutrition, reflecting efforts to address iron deficiency and support balanced diets.
Safety & Regulations
FDA
- Notes: Inclusion in the FDA Substances Added to Food inventory does not by itself establish defined regulatory approval conditions or permitted use levels.
EFSA
- Notes: An EFSA evaluation or E number designation for FERRIC PEPTONATE was not found in publicly accessible EU additive lists.
JECFA
- Notes: A dedicated JECFA specification or ADI for FERRIC PEPTONATE was not identified in the accessible JECFA database.
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