Textured Pea Protein
Textured Pea Protein, sometimes abbreviated as TPP, is a thermomechanically extruded plant protein ingredient designed to provide protein enrichment, water absorption, structural integrity and a fibrous, granular or meat-like bite in industrial food formulations.
Commercial grades may be produced from pea protein concentrate, pea protein isolate or pea-protein-rich flour. The selected raw material, protein concentration, extrusion conditions, particle geometry and final density influence hydration speed, texture, flavor, color, cooking stability and finished-product yield.
Textured Pea Protein is commonly evaluated for plant-based meat products, hybrid meat formulations, ready meals, fillings, sauces, frozen foods and protein-enriched dry systems. Grade selection should be based on application trials rather than protein content alone.
Product identity
| Product name | Textured Pea Protein |
|---|---|
| Common names | TPP, texturized pea protein and pea-based textured vegetable protein |
| Product category | Plant protein, texturizer and functional food ingredient |
| Botanical source | Pea, commonly Pisum sativum; exact variety and origin are supplier dependent |
| Typical raw materials | Pea protein concentrate, pea protein isolate or pea-protein-rich flour |
| Processing principle | Controlled extrusion using heat, pressure, moisture and mechanical shear |
| Typical physical forms | Fine granules, coarse granules, mince, flakes, strips, chunks, shreds and customized shapes |
| Appearance | Cream, beige, yellow-tan or brown, depending on raw material, extrusion conditions and added color |
| Flavor profile | Neutral to characteristic pea, cereal, green or roasted notes; low-flavor grades may be available |
| E / INS number | Generally not assigned one universal E or INS number because the product is marketed as a processed food ingredient |
| CAS / chemical identity | No single universal CAS identity normally represents all commercial textured pea protein preparations |
| Dietary positioning | May be suitable for vegan or vegetarian formulations when supported by the complete formulation and supplier documents |
| Allergen review | Pea labeling and allergen assessment are market specific; legume-sensitive consumers may require additional risk review |
Primary industrial functions
- Protein enrichment and nutritional profile development
- Formation of granular, fibrous or meat-like texture
- Water absorption and moisture retention
- Partial or complete replacement of animal-protein pieces
- Yield support in formulated protein products
- Bulk and visible particulate definition
- Bite and chew development
- Support for fat and seasoning distribution
- Structure retention during cooking and reheating
- Cost-in-use optimization in protein formulations
Technical parameters to evaluate
Textured Pea Protein specifications vary considerably between manufacturers. Values should therefore be agreed in a signed product specification and verified against the supplier's certificate of analysis, analytical methods and manufacturing tolerances.
The guidance below describes common industrial purchasing parameters. It does not represent a universal specification for every commercial grade.
| Parameter | Industrial significance | Purchasing guidance |
|---|---|---|
| Protein content | Determines nutritional contribution, product positioning and formulation value. | Specify a minimum percentage and whether the result is reported on an as-is or dry-matter basis. Commercial grades may range from approximately 50% protein to above 75%, depending on the raw material and process. |
| Moisture | Influences shelf life, microbiological stability, flow and commercial yield. | Establish a maximum limit and confirm the test method. Many dry textured proteins are controlled at relatively low moisture, but the exact limit is supplier specific. |
| Fat | Affects nutritional values, flavor stability and oxidation risk. | Review maximum fat requirements where long dry shelf life or a low-fat nutritional declaration is important. |
| Ash | Supports compositional control and can affect flavor and nutrition calculations. | Include a limit where formulation tolerances or nutritional declarations require close control. |
| Fiber | Influences water binding, texture and nutritional composition. | State whether crude fiber, total dietary fiber or another analytical method is required. |
| Particle size | Controls visual appearance, hydration time, mouthfeel and distribution in the finished product. | Specify dimensions, screen range, shape, acceptable fines and oversize tolerances. |
| Particle geometry | Influences whether the ingredient resembles mince, flakes, strips, shreds or chunks after hydration. | Evaluate both dry and hydrated dimensions because individual grades expand differently. |
| Fines and dust | Affect dosing accuracy, process hygiene, visual appearance and handling loss. | Set an acceptable fines percentage where automated conveying or visible particle definition is important. |
| Bulk density | Affects bag volume, storage capacity, pneumatic transfer, dosing and freight efficiency. | Confirm whether the result is loose or tapped bulk density and require a defined test procedure. |
| Hydration ratio | Influences cost-in-use, formulation water and finished-product yield. | Compare suppliers using identical water temperature, hydration time, agitation and draining procedures. |
| Water absorption | Indicates the amount of liquid taken up by the textured structure. | Validate the result in the actual formulation because salt, acids, fat, starches, fibers and hydrocolloids can change water uptake. |
| Water retention | Indicates whether absorbed water remains within the structure during mixing, cooking and storage. | Evaluate purge, syneresis, cooking loss and free water after processing. |
| Hydration time | Affects batch scheduling, tank capacity and line throughput. | Define the required hydration time at a specified temperature and liquid-to-product ratio. |
| Texture after hydration | Determines firmness, elasticity, chewiness and suitability for the target food. | Use sensory evaluation and, where needed, compression, shear or texture-profile analysis. |
| Piece integrity | Shows resistance to breakage during hydration, mixing, pumping, forming, cooking and freezing. | Test the material under process conditions representative of the commercial line. |
| Color | Affects finished-product appearance and required color-system dosage. | Use visual standards or instrumental color values where batch-to-batch consistency is critical. |
| Flavor and odor | Pea, green, cereal, earthy or bitter notes can influence the required flavor and masking system. | Evaluate the product dry, hydrated and in the finished application. |
| Cooking stability | Determines whether the product maintains shape and bite during thermal processing. | Assess under the intended pasteurization, baking, frying, steaming or retort conditions. |
| Freeze-thaw stability | Influences purge, breakage and texture in frozen products. | Evaluate after the expected number of freeze-thaw cycles and the intended reheating method. |
How Textured Pea Protein is produced
Textured Pea Protein is generally produced by feeding a pea-protein-rich dry blend into an extrusion system. Water or steam is introduced to condition the material before it is exposed to controlled temperature, pressure and mechanical shear inside the extruder.
Extrusion reorganizes the protein matrix and modifies the functionality of the raw material. As the product exits the die, pressure reduction and moisture flashing can create a porous, expanded structure. The extrudate is then cut, dried, cooled and classified into the required particle size.
Manufacturers can adjust raw-material composition, feed moisture, screw configuration, mechanical energy, barrel temperature, residence time, die geometry and drying conditions to produce different densities, hydration rates, internal structures and textures.
Key extrusion variables
- Protein concentration of the feed material
- Starch, fiber and carbohydrate content
- Feed moisture and preconditioning
- Extruder screw profile and screw speed
- Mechanical energy input
- Barrel temperature profile
- Residence time and pressure
- Die opening, geometry and restriction
- Cutting speed and particle dimensions
- Drying temperature and final moisture
Resulting performance differences
- Fast-hydrating or slow-hydrating grades
- Soft, tender, elastic, chewy or firm texture
- Low-density porous or high-density compact pieces
- Different levels of expansion and internal porosity
- Different resistance to mixing and pumping
- Different cooking and retort stability
- Different flavor and color absorption
- Fine mince-style or large whole-muscle-style particles
Low-moisture and high-moisture texturization
Low-moisture extruded pea protein
Low-moisture extrusion is commonly used to manufacture dry, shelf-stable granules, flakes, strips and chunks. The product is dried after extrusion and generally requires hydration before use.
This format is often selected for dry mixes, plant-based mince, meat extension, fillings, sauces, frozen foods and applications where ambient storage and flexible handling are important.
High-moisture extruded pea protein
High-moisture extrusion can create a denser and more aligned fibrous structure. These products may be supplied chilled, frozen or further processed, depending on the manufacturing system and product design.
High-moisture materials are often evaluated for whole-muscle-style plant-based applications. They require different storage, microbiological and logistics controls from dry textured protein.
Common grade families
Pea flour-based grades
Pea-flour-rich grades may be selected for economical texture building and protein enrichment. They can contain more starch, fiber and carbohydrate than concentrate- or isolate-based grades, which may influence hydration, color and flavor.
Pea protein concentrate-based grades
Concentrate-based products can provide an intermediate balance of protein, texture, cost and functional performance. Exact protein content and sensory characteristics depend on the concentration method and extrusion design.
Pea protein isolate-based grades
Isolate-based grades may be selected when higher protein, controlled composition, lighter color or specialized texture is required. Performance still varies according to isolate quality and extrusion conditions.
Blended textured proteins
Pea protein may be combined with wheat, rice, faba bean, chickpea, potato, soy or other plant materials to modify texture, nutritional profile, process behavior or cost. The complete ingredient composition must be confirmed before approval.
Hydration and production guidance
Hydration should be optimized for each particle size, density and formulation. A ratio that performs well in plain water may not produce the same result in a salted, acidic, oily, frozen or retorted system.
Some commercial grades may absorb approximately 1.5 to 3 parts liquid per part dry product, but this should be treated only as an initial formulation range. The supplier's test method and application trials should determine the final ratio.
- Define the target texture. Determine whether the finished product requires a tender, juicy, elastic, fibrous, coarse or firm bite.
- Select the particle size. Fine granules are generally more suitable for mince-style products, while strips and chunks provide visible structure.
- Establish the liquid ratio. Begin with the supplier recommendation and adjust for firmness, free water and finished-product yield.
- Select the hydration medium. Water, brine, broth, seasoning solution, marinade or a flavored process liquid may be used.
- Control temperature. Warm liquid can accelerate hydration, while colder liquid may allow better process control or reduce microbial growth during longer preparation steps.
- Control hydration time. Fine porous granules normally hydrate faster than dense flakes, strips or chunks.
- Use appropriate mixing intensity. Excessive shear can fracture hydrated particles and create undesirable fines.
- Check free liquid. Unabsorbed water can weaken emulsions, increase purge or create an excessively soft texture.
- Manage hydrated-product hygiene. Once water is added, the ingredient is no longer a low-moisture material and should be controlled using appropriate time, temperature and sanitation procedures.
Industrial application areas
Plant-based meat alternatives
- Plant-based burgers and patties
- Meatballs, kofta and kebab-style products
- Plant-based mince
- Nuggets and formed products
- Sausage-style formulations
- Plant-based fillings and toppings
- Ready-to-cook protein components
Textured Pea Protein may be combined with oils, binders, hydrocolloids, starches, fibers, flavors and colors to build structure, juiciness and appearance.
Hybrid meat products
- Blended beef-and-plant burgers
- Hybrid poultry products
- Meatballs and formed meat products
- Ground-meat preparations
- Cooked fillings and meat sauces
- Cost-optimized foodservice products
Particle size, hydration ratio and color should be selected to complement the animal-protein matrix without creating visible separation or excessive softness.
Ready meals and convenience foods
- Pasta and pie fillings
- Frozen meals
- Soups and stews
- Sauces and chili-style products
- Stuffed vegetables
- Retorted pouches
- Canned prepared foods
Piece integrity should be tested after pumping, filling, freezing, thawing, retorting and reheating.
Dry mixes and dehydrated foods
- Instant meal systems
- Dehydrated fillings
- Dry plant-based mince mixes
- Foodservice preparation systems
- Protein-enriched soups
- Shelf-stable emergency or institutional foods
Hydration consistency, package moisture protection and flavor stability are especially important in dry systems.
Bakery and savory fillings
- Savory pastries
- Filled breads
- Pie and turnover fillings
- Pizza toppings
- Prepared sandwich fillings
The selected grade should retain moisture and structure without causing dough softening, excessive purge or filling breakdown.
Protein-enriched foods
- High-protein meal components
- Nutrition-focused savory foods
- Institutional meal systems
- Protein-fortified convenience products
- Specialized foodservice formulations
Protein claims and nutritional declarations must be calculated from the complete finished formulation and validated under the applicable market rules.
Compatibility with other functional ingredients
| Ingredient group | Potential role with Textured Pea Protein | Evaluation point |
|---|---|---|
| Hydrocolloids | Can support binding, juiciness, shape retention and freeze-thaw stability. | Excessive binding can reduce natural bite or create a gummy texture. |
| Starches | Can increase water retention, viscosity and thermal-set structure. | Starch gelatinization may compete with the textured protein for available water. |
| Plant fibers | Can support yield, moisture retention and nutritional positioning. | High fiber levels can increase dryness, brittleness or visible particulate load. |
| Other proteins | Can modify binding, emulsification, nutrition and texture. | Protein interactions should be evaluated under the final pH, salt and thermal conditions. |
| Oils and fats | Contribute juiciness, flavor release and mouthfeel. | Fat leakage and emulsion stability should be tested during cooking and reheating. |
| Flavor systems | Can provide meat, poultry, roasted, fermented, vegetable or culinary profiles. | Pea flavor, bitterness and aftertaste should be evaluated after full thermal processing. |
| Color systems | Can create raw-meat, cooked-meat, poultry or vegetable appearance. | Color stability should be checked after storage, cooking and exposure to oxygen or light. |
| Salt and minerals | Affect flavor, protein interactions and water management. | Ionic strength can alter hydration and firmness. |
| Acids and acidulants | Control flavor, preservation and final pH. | Acidic conditions may change hydration, protein solubility and texture. |
Recommended industrial trial measurements
| Trial stage | Measurements to consider |
|---|---|
| Incoming dry material | Particle-size distribution, color, odor, bulk density, fines, foreign material, bag integrity and lot coding. |
| Hydration trial | Water uptake, hydration time, drained yield, free liquid, dimensional change and hydrated firmness. |
| Mixing trial | Piece breakage, distribution uniformity, free water, mixture consistency and equipment loading. |
| Forming trial | Portion control, shape retention, sticking, fracture and line throughput. |
| Cooking trial | Cooking loss, shrinkage, yield, fat release, internal appearance and piece integrity. |
| Texture assessment | Firmness, cohesiveness, chewiness, elasticity, juiciness, fibrousness and sensory bite. |
| Frozen-product assessment | Freeze-thaw stability, purge, ice-crystal damage, breakage and texture after reheating. |
| Retort assessment | Softening, fragmentation, sauce interaction, thermal-process survival and package-to-package consistency. |
| Shelf-life assessment | Flavor stability, oxidation, color stability, purge, microbiological compliance and texture over time. |
| Consumer preparation | Performance after frying, baking, microwaving, steaming or other intended preparation methods. |
Flavor, color and texture considerations
Pea-derived proteins can carry characteristic green, cereal, earthy, legume, bitter or astringent notes. The intensity depends on raw material quality, fractionation method, lipid content, storage, extrusion conditions and oxidation control.
A technically suitable flavor system may include savory base notes, roasted or grilled profiles, yeast-derived ingredients, spices, smoke, fermentation-derived flavors or masking components. Final flavor performance should be evaluated after the complete thermal process because heating can reduce, expose or transform individual notes.
Color should also be selected according to the intended application. Natural or added colors can influence the appearance of the dry product, hydrated particles and cooked finished food. Buyers should confirm all added colors, carriers and processing aids in the ingredient statement.
Quality-control requirements
Quality requirements should reflect the intended food category, thermal process, consumer group, shelf life and destination market. General supplier limits may not be sufficient for ready-to-eat, high-care, infant, clinical or export-controlled applications.
Compositional controls
- Protein, moisture, fat, ash and fiber
- Particle size and bulk density
- Fines and oversize particles
- Hydration ratio and water retention
- Color, flavor and odor
- Nutritional values and calculation basis
Microbiological controls
- Total aerobic count
- Yeast and mold
- Coliforms and Escherichia coli
- Salmonella absence in the specified sample size
- Bacillus cereus where required by risk assessment
- Environmental and hygiene-program information
Chemical and contaminant controls
- Heavy metals according to market requirements
- Pesticide residues where applicable
- Mycotoxins based on origin and raw-material risk
- Residual processing chemicals where relevant
- Foreign-material controls
- Metal detection or X-ray inspection information
Identity and claim controls
- Botanical source and ingredient composition
- GMO, non-GMO or identity-preserved status
- Country of origin and manufacturing location
- Halal and kosher status where required
- Vegan or vegetarian suitability statement
- Organic status only where valid certification is supplied
- Gluten declaration and cross-contact assessment
Pea-specific labeling considerations
Pea is not classified identically in every national allergen-labeling system. However, pea proteins can cause reactions in some legume-sensitive consumers. The buyer should assess destination-market rules, customer policies, supplier cross-contact controls and the intended consumer group.
Blended textured products require particular attention because they may contain wheat, soy or other plant proteins with separate allergen declarations. A product marketed commercially as textured pea protein should not be assumed to contain only pea unless the complete ingredient statement confirms this.
Protein quality and formulation balance
Pea protein can contribute meaningful plant protein and is generally recognized for a useful lysine contribution. Sulfur-containing amino acids such as methionine may be comparatively limiting, depending on the complete product and formulation.
Formulators may combine pea protein with cereal, rice, wheat or other protein sources to develop the desired amino-acid profile, texture, cost and flavor. Nutritional claims should be calculated from the finished food rather than from the dry ingredient alone.
Protein quality can also be affected by raw-material processing, digestibility, thermal treatment and the complete food matrix. Application-specific nutritional verification may therefore be required for regulated claims or specialized foods.
Documents to request before approval
- Current signed product specification or technical data sheet
- Representative and lot-specific certificate of analysis
- Complete ingredient statement
- Manufacturing-process description
- Allergen and cross-contact declaration
- GMO, non-GMO or identity-preserved statement
- Country-of-origin and manufacturing-site declaration
- Food-safety certification and audit-scope information
- HACCP or food-safety-plan summary where available
- Microbiological criteria and analytical methods
- Heavy-metal and contaminant limits
- Pesticide-residue declaration where required
- Nutritional information and reporting basis
- Shelf-life and storage statement
- Packaging specification
- Food-contact compliance for the packaging material
- Halal, kosher or organic certificates where required
- Vegan or vegetarian suitability declaration
- Gluten status and cross-contact assessment
- Safety data sheet where required for workplace procedures
- Change-notification policy
- Traceability and recall procedure
Industrial packing, storage and shipment
| Common packaging | Multiwall paper bags with an inner food-grade liner are commonly used. Exact net weight, liner material and closure method depend on the supplier. |
|---|---|
| Bulk formats | Large bags or customized industrial packing may be available, subject to particle integrity, bulk density, minimum order quantity and manufacturing capability. |
| Bag labeling | Bags should identify the product, lot, net weight, production or packing date, shelf-life date, storage conditions and manufacturer or responsible supplier. |
| Pallet configuration | Request bags per pallet, pallet dimensions, pallet material, net and gross weight, wrapping method and stacking limits. |
| Storage | Store sealed in a cool, dry, clean and ventilated area, protected from moisture, direct sunlight, pests, chemicals and strong odors. |
| Shelf life | Shelf life is grade, moisture and packaging dependent. Confirm the declared period and minimum remaining shelf life required at shipment and delivery. |
| Transport | Vehicles and containers should be dry, clean, odor-free, pest-free and suitable for food ingredients. Water ingress and container condensation should be prevented. |
| Traceability | Each bag and pallet should carry sufficient lot coding to support receipt inspection, stock rotation and recall traceability. |
| Stock rotation | Apply first-expired, first-out controls and maintain sealed bag integrity until use. |
Compare cost-in-use, not price per kilogram alone
Two Textured Pea Protein grades with the same declared protein content can deliver different commercial results. Hydration yield, fines, flavor intensity, bulk density, breakage, cooking loss and required binder or flavor adjustments can materially change the cost of the finished product.
A complete comparison may include:
- Delivered cost per kilogram of dry ingredient
- Protein content and reporting basis
- Hydrated yield under a standardized method
- Cost per kilogram of usable hydrated product
- Cooking loss and finished-product yield
- Required flavor and masking dosage
- Required color, binder, starch or hydrocolloid adjustments
- Hydration time and tank-capacity requirements
- Mixing and line-throughput effects
- Dust, fines and handling loss
- Breakage during pumping or forming
- Freight efficiency related to bulk density
- Batch consistency and rejection risk
- Lead time, minimum order quantity and supply continuity
- Supplier documentation and change-control quality
Information to include in a sourcing request
A technically complete inquiry helps suppliers select an appropriate grade and reduces delays during sampling and quotation.
- Required form: granule, mince, flake, strip, shred, chunk or other shape
- Target dry and hydrated particle dimensions
- Maximum acceptable fines and oversize particles
- Minimum protein content and reporting basis
- Preferred raw material: flour, concentrate or isolate
- Requirement for pure pea or a blended textured protein
- Target bulk density
- Target hydration ratio and hydration time
- Required hydrated firmness, chewiness or fibrousness
- Desired color and flavor profile
- Intended application and approximate use level
- Process conditions, including mixing, pumping and forming
- Thermal process, such as frying, baking, pasteurization or retort
- Frozen-storage and reheating requirements
- Microbiological and contaminant limits
- Allergen and cross-contact requirements
- GMO, halal, kosher, vegan or organic requirements
- Packaging format and net bag weight
- Trial quantity and expected annual demand
- Destination country and delivery location
- Preferred Incoterm and shipment schedule
- Documents required before sample or order approval
Recommended qualification workflow
- Issue a target specification and describe the intended application.
- Review supplier documents and identify missing parameters.
- Obtain a representative sample of the proposed commercial grade.
- Inspect dry particle size, color, odor, density and fines.
- Perform a controlled hydration comparison.
- Complete bench-scale formulation trials.
- Validate the product in pilot or production equipment.
- Test mixing, pumping, forming and thermal-process stability.
- Evaluate sensory texture, flavor, color and aftertaste.
- Complete shelf-life or freeze-thaw testing where required.
- Approve the final specification, packaging and labeling documents.
- Verify that the first commercial shipment matches the approved sample and specification.
- Establish ongoing lot verification and supplier-performance review.
Common processing observations
| Observation | Possible contributing factors | Areas to investigate |
|---|---|---|
| Product remains too firm | Insufficient water, short hydration time, cold water or a dense grade. | Increase hydration time or liquid, adjust temperature or select a more porous grade. |
| Texture becomes too soft | Excess water, prolonged hydration, aggressive mixing or a low-density grade. | Reduce liquid, shorten hydration, reduce shear or select a firmer grade. |
| Pieces break during processing | Excessive shear, long mixing, pumping stress or insufficient structural strength. | Change the addition point, reduce mechanical stress or use a denser product. |
| Free water appears | Overhydration, weak water retention, salt or pH effects, or insufficient binder. | Rebalance liquid, evaluate formulation interactions and review hydration procedure. |
| Finished product is dry | Underhydration, excessive cooking loss, low fat or excessive fiber. | Adjust hydration, fat system, binder and thermal process. |
| Pea flavor is too strong | Raw-material flavor, oxidation, high use level or insufficient seasoning. | Test low-flavor grades, improve flavor balance and review storage conditions. |
| Color is inconsistent | Raw-material variation, extrusion variation, oxidation or uneven color distribution. | Define color tolerances and evaluate supplier batch consistency. |
| Particles separate from the matrix | Incompatible particle size, insufficient binding or poor hydration control. | Modify particle size, binder system, mixing sequence or hydration level. |
Frequently asked questions
What is Textured Pea Protein used for in food manufacturing?
Textured Pea Protein is used to increase protein, absorb water, provide bite and structure, support yield and partially or completely replace animal-protein particulates in plant-based foods, hybrid meat products, fillings, sauces, frozen meals and dry mixes.
How is Textured Pea Protein manufactured?
A pea-protein-rich raw material is conditioned with water and processed through an extruder. Heat, pressure and mechanical shear restructure the protein before the extrudate is cut, dried and classified into the required shape and particle size.
What is the difference between granules, flakes, strips and chunks?
Granules are commonly used for minced or ground-meat-style applications. Flakes provide larger visible particulates, while strips and chunks are selected for products requiring a more substantial or fibrous bite. Particle geometry also affects hydration time and resistance to breakage.
How much water does Textured Pea Protein absorb?
Water absorption depends on raw material, density, particle size, extrusion conditions and test method. Some grades may absorb approximately 1.5 to 3 parts liquid per part dry product, but the final ratio must be validated in the actual formulation.
Can Textured Pea Protein be added without prehydration?
Some fine grades can be added directly to formulations containing sufficient available water. Larger or denser pieces are generally prehydrated. Direct addition should be validated to prevent incomplete hydration, excessive firmness or unintended water removal from the surrounding matrix.
Is Textured Pea Protein the same as pea protein isolate?
No. Pea protein isolate is generally a fine protein-rich powder. Textured Pea Protein is an extruded structure made from isolate, concentrate, flour or a blend. It is designed to provide visible particles and a fibrous or meat-like texture.
Is Textured Pea Protein allergen free?
It should not automatically be described as allergen free. Pea labeling rules vary by market, and pea can cause reactions in some legume-sensitive individuals. Supplier cross-contact information and destination-market requirements must be reviewed.
Is non-GMO Textured Pea Protein available?
Non-GMO or identity-preserved options may be available depending on origin, supplier, certification requirements, testing protocol and minimum order quantity. Any claim should be supported by current documentation.
Does Textured Pea Protein contain gluten?
Pure pea-derived grades may be formulated without gluten-containing ingredients, but cross-contact conditions differ between manufacturing sites. Blended textured proteins may contain wheat or other gluten sources. The complete composition and supplier declaration must be checked.
Does Textured Pea Protein have an E number?
It is generally marketed as a processed food ingredient rather than a single chemically defined additive with one universal E or INS number. Buyers should verify its legal name and ingredient-list designation in the destination market.
Which documents should be requested?
Buyers commonly request a signed specification, certificate of analysis, ingredient statement, manufacturing description, allergen declaration, GMO statement, origin statement, microbiological criteria, nutritional data, shelf-life information, packaging specification and relevant food-safety certificates.
Can Global Food Additives source customized grades?
Global Food Additives can review sourcing options for different protein levels, shapes, colors, densities, hydration properties, flavor profiles and packaging formats according to application, quantity, destination and documentation requirements.
Send your Textured Pea Protein specification.
Include the required shape, particle size, protein content, hydration performance, intended application, quantity, destination, packaging preference, delivery term and documentation requirements. Our team will review your inquiry and respond from orders@foodgradeadditives.com .
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