G.2065Page1GlobalResearchjournalofNaturalScience&Technology(GRJNST)Volume:04-Issue2(2026),2065ISSNP:2790-7643ISSNE:2790-7651www.grjnst.nethttps://doi.org/10.53762/grjnst.04.02.16DevelopmentofFunctionalMeatProductsEnrichedwithPlant-BasedBioactiveCompoundsReceived:25December2025.Accepted:28February2026.Published:18April2026MuhammadShoaibAzeemDepartmentofLivestock&PoultryProduction,FacultyofVeterinarySciences,BahauddinZakariyaUniversity,Multan.CorrespondenceEmail:shoaibazeem@bzu.edu.pkNamalMahmoodNationalInstituteofFoodScienceandTechnology(NIFSAT)UniversityofAgricultureFaisalabadnamalmahmood2@gmail.comSeharAnamkhanDepartmentoffoodsciencesFacultyofagriculturalsciencesUniversityofthePunjabLahoreSeharanam85@gmail.comMuhammadAhmadMehmoodInstituteofBusinessManagementSciencesUniversityofAgricultureFaisalabadmianahmadaa206@gmail.comAmelAmirHumanNutritionandDieteticsRiphahFacultyofRehabilitationandAlliedHealthSciencesRiphahInternationalUniversity,GulbergGreenCampus,Islamabadbajwaamel@yahoo.comMuhammadAbdullahButtDepartmentofFoodScienceGovernmentCollegeUniversityFaisalabadCorrespondenceEmail:muhammadabdullahbuttfst@gmail.comGRJNST,Volume:04-Issue2(2026)/ISSNP:2790-7643ArticleID:2065https://doi.org/10.53762/grjnst.04.02.16G.2065Page2antioxidant,anti-inflammatory,Abstract:Increasedconsumerinterestinhealthier,cleanlabelfoodproductshasincreasedresearcheffortsontheproductionoffunctionalmeatproductswithincreasedbioactivecompoundsfoundinplants.Despitebeinggoodsourcesofhigh-qualityproteinandimportantmicronutrients,traditionalmeatproductsarecommonlycriticizedtocontaininghighsaturatedfats,cholesterolandsyntheticadditives,inadditiontotheabsenceofdietaryfiberandnaturalantioxidants.Thisreviewprovidesacriticalanalysisofthemorerecentdevelopmentsintheadditionofdifferentplant-derivedbioactives,suchaspolyphenols,carotenoids,dietaryfibers,essentialoilsandplantproteinhydrolysates,tomeat-basedmatrices.Thesecompoundshavebothtechno-functionalproperties:asnaturalpreservatives,theyinhibitlipidoxidation,proteinoxidationandmicrobialspoilage,therebyprolongingproductshelflife,aswellashavinghealth-promotingproperties,andanti-hypertensive,includinghypocholesterolemiaproperties.Nevertheless,significantdifficultiesremain,suchastheformationofoff-flavors,unwantedcolorchanges(e.g.browningorfading),texturaldeteriorationanddecreasedoverallconsumeracceptabilityincasesofbioactivecompoundadditionbeyondoptimallevels,whicharemostly0.5-5%w/w.Thenewencapsulationtechnologieslikemicroencapsulation,nanoemulsionsandediblecoatingsareidentifiedastheeffectivemethodstoconcealtheundesirablesensoryproperties,tocontrolthereleaseofbioactivesandretaintheirfunctionalityevenduringthermaltreatmentandstorage.Thefutureresearchneedsinterventionstudiestosupporthealthassertions,tofocusonhumanstandardizationofextractionandincorporationproceduretoprovidebatch-to-batchconsistencyanduseofgreentechnologytoproduceatsustainablelevels.Moreover,thelackofdefiniteregulatoryframeworksregardingthelabellingoftheproductoffunctionalmeatisalsoamajorobstacletocommercialtranslation.Tosumup,strategicfortificationofmeatproductswithplant-basedbioactivecompoundsisafeasibleandpromisingformulationapproachtoradicalizeconventionalmeatintofunctionalfoodsthatcansatisfythedemandsofmodernconsumersregardingtheirsensualpleasureandhealthpromotion,aslongaschallengeslinkedtoformulationscanbeovercomewithnewprocessingtechnologies.Keywords:Functionalmeat;Plantbioactivecompounds;Polyphenols;Naturalantioxidants;Clean-labelmeat;Lipidoxidation;Reformulationstrategies;Meatproductdevelopment;Encapsulationtechnology;Phytochemicals.1.IntroductionMeathasbeenknowntobeanutritionallyrichfood;itisasourceofhigh-qualityprotein,bioavailablehemeiron,zinc,selenium,andBvitamins(Pereira&Vicente,2013).Nevertheless,recent20yearshaveseenanaccumulationofepidemiologicaldataabouttherisksofcolorectalcancer,cardiovasculardisease,andtype2diabetesassociatedwithexcessintakeofprocessedmeat(Bouvardetal.,2015;Michaetal.,2010).In2015,theInternationalAgencyonResearchonCancercharacterizedprocessedmeatasbeingGRJNST,Volume:04-Issue2(2026)/ISSNP:2790-7643ArticleID:2065https://doi.org/10.53762/grjnst.04.02.16G.2065Page3carcinogenictohumans(Group1),whichhastriggeredarushtoreformulateconventionalmeatproducts.Atthesametime,thedemandofconsumersintheso-calledcleanlabelproducts,i.e.,theproductswithoutsyntheticpreservatives,artificialcolorants,andotherchemicals-soundingingredientshasincreasedsignificantly(Asiolietal.,2017).Foodspreparedthetraditionalwayusesyntheticpreservativeslikesodiumnitrite,butylatedhydroxyanisole(BHA)andbutylatedhydroxytoluene(BHT)topreserve,maintaintheircolor,andtoensuresafety.Substitutionofthesemultifunctionaladditiveswithnaturalonesisabigtechnologicalchallenge.Bioactivecompoundsobtainedthroughplantshavebecomethemostpromisingcandidatestoovercomethischallenge(Shahetal.,2019).Millennia-oldplantshavedevelopedcomplexsecondarymetabolitesofphenoliccompounds,terpenesandglucosinolatesasdefensesystemsagainstoxidativestressandpathogens.Thesamecompoundsarehighlyantioxidant,antimicrobial,andanti-inflammatoryintheiruseinfoodmatrices(Fragaetal.,2019).Theobjectiveofthisreviewistosynthesizetheexistinginformationontheproductionoffunctionalmeatproductssupplementedwithplant-derivedbioactivecompounds,wheretheemphasiswillbeon:(1)thekeyclassesandsourcesofplantbioactive(2)themechanismsofactioninmeatproducts(3)enrichmenttechnologies(4)theeffectsonproductqualityandsafety(5)thesustainabilityaspectssuchasby-product2.MajorClassesofPlantBioactiveCompounds2.1PolyphenolsThemostchemicallydiverseandlargestgroupofplantsecondarymetabolitesisthepolyphenols,whichhavearomaticringswithoneormorehydroxylgroups(Table1).Theyhavesimplephenolicacidstohighlypolymerizedtanninsastherangeoftheirmolecularstructures,andacorrespondinglyvariedrangeoffunctionalpropertiesinmeatsystems.Table1:MajorClassesofPlantBioactiveCompoundsforMeatApplicationsClassKeyCompoundsMajorPlantSubclassPolyphenolsPhenolicacidsGallic,caffeic,ferulic,p-coumaricFlavonoidsHydroxytyrosolderivativesQuercetin,kaempferol,catechin,EGCGHydroxytyrosol,tyrosol,oleuropeinGRJNST,Volume:04-Issue2(2026)/ISSNP:2790-7643ArticleID:2065https://doi.org/10.53762/grjnst.04.02.16SourcesCoffee,blueberries,apples,cerealsOnions,tea,apples,berriesOlives,olivemillwastewaterPrimaryMechanismRadicalscavenging,metalchelationHATandSETmechanismsMembranepartitioning,radicalG.2065TanninsDietaryfibersSolublefibersProanthocyanidins,ellagitanninsPectins,β-glucans,gumsInsolublefibersCellulose,hemicellulose,ligninGrapeseeds,pomegranate,berriesCitruspeels,oats,legumesWheatbran,vegetablepomacePlantproteinsLegumeproteinsAliphaticGlucosinolatesSoyprotein(7S,11S),peaproteinSinigrin,glucoraphaninSoybeans,peas,lupinBroccoli,cabbage,mustardPage4stabilizationProteinbinding,metalchelationWaterholding,gelationPhysicalentrapment,texturemodificationEmulsification,gelationAntimicrobial(isothiocyanates)2.1.1PhenolicAcidsThesimplestsubclassofpolyphenolsisthephenolicacidswhicharederivativesofbenzoicandcinnamicacid.Thehydroxybenzoicacids(gallic,protocatechuicandvanillic)haveaC6-C1structurewhereasthehydroxycinnamicacids(caffeic,p-coumaricandferulic)haveaC6-C3structure(Robbins,2003).Caffeicacid,whichisabundantincoffeeandblueberries,exhibitsastrongantioxidanteffectbyhydrogenatomtransfer(HAT)andsingleelectrontransfer(SET)processes.ThemostcommonphenolicacidincerealgrainsisferulicacidwhichpossessesotherUVabsorptioncharacteristicsandcanbeusedtopreventthedegradationofmeatpigmentscausedbyphotodegradation(KumarandPruthi,2014).2.1.2FlavonoidsFlavonoidshaveasimilarC6-C3-C6skeleton.Notablesubclassesareflavonols(quercetin,kaempferol),flavones(luteolin),flavan-3-ols(catechin),andanthocyanidins(cyanidin).Theexampleofstructure-activityrelationshipinantioxidantactivityisQuercetin:the3,4-dihydroxyBringallowseffectivedelocalizationofelectronsandthe2,3-doublebondconjugatedwiththe4-oxogrouppromotesresonancestabilization(Rice-Evansetal.,1996).Epigallocatechin-3-gallate(EGCG)ofgreenteaincludesagallateester,whichsignificantlyincreasesantioxidantandprotein-bindingfunctions(Nagleetal.,2006).HydroxytyrosolandOlive-DerivedCompounds.2.1.3HydroxytyrosolandOlive-DerivedCompounds.Hydroxytyrosol(3,4-dihydroxyphenylethanol)isoneofthemostpowerfulnaturalantioxidantsthathavebeenfound.Itisnearlyexclusivelypresentinolivesandoliveproductswithapotencythatisattributedtothesynergisticeffectofacatecholstructuretostabilizeradicalsandashortaliphaticchainthatgivesitthecorrectlipophilicitytopartitionintothemembrane(Visiolietal.,2002).By-productvalorizationisparticularlyGRJNST,Volume:04-Issue2(2026)/ISSNP:2790-7643ArticleID:2065https://doi.org/10.53762/grjnst.04.02.16G.2065Page5appealingtoolivemillwastewater,whichcurrentlypresentsachallengetotheenvironmentasadisposalissueduetoitshighlevelsofhydroxytyrosol(upto5g/L)(Obiedetal.,2005).2.2DietaryFibersCarbohydratepolymersofdegreeofpolymerization3orabovethatarenothydrolyzedbyendogenoushumandigestiveenzymesarecalleddietaryfibers(Table1).Fibersareusedinmeatmatricesinvarioustechnologicalapplications,suchaswater-holdingcapacity(5-20timesdryweight),texture-modifying,emulsion-stabilizing,andphysicalentrapmentoflipiddroplets(Mehtaetal.,2015).Theby-productsoffruitsandvegetablessuchasapplepomace,citruspeels,grapepomacesupplyfiberconcentrateswith40-70%dietaryfiberandrelatedpolyphenols(Ajilaetal.,2012).2.3PlantProteinsSoyproteinisthemostcommonplantproteinthatisusedinmeat-relatedproducts,withtheoptionofsoyflour(50%protein),soyproteinconcentrate(70%),andsoyproteinisolate(90%).Thepropertiesofthefunctionalpropertiesarebasedon7Sandglycininfraction(11S)withlarger11S/7Sratiosgivingstiffergelswhicharedesirableinemulsifiedmeatproduct(Nishinarietal.,2014).Peaproteinhasalsobecomeasolutiontotheissueofsoyallergens,butithasalowersolubilityandemulsifyingproperty(Lametal.,2018).2.4GlucosinolatesandIsothiocyanatesMyrosinasehelpstobreakdownthetissuesofplantsoftheBrassicaceae,producingisothiocyanates,whicharesulphur-containingcompounds.BroccoliSulforaphanehasastrongantimicrobialeffectagainstthebacteriaListeriamonocytogenesandEscherichiacoliO157:H7byreactingwiththiolgroupsonkeymicrobialenzymes(Dinkova-KostovaandKostov,2012).Theuseissensitivetothemanagementofmyrosinaseactivity,whichisusuallyneutralizedbythermaltreatment.3.MechanismsofActioninMeatMatrices3.1AntioxidantMechanismsThemajordegradativeprocessthatreducestheshelflifeofmeatproductsislipidoxidation.Plantbioactivesactinanumberofcomplementaryways(Table2).Table2:MechanismsofActionofPlantBioactiveinMeatMatricesMechanismRadicalscavengingTargetProcessKeyCompoundsPeroxylradicals(LOO•)(quercetin,Catechol-containingphenolicscaffeicacid)Ortho-dihydroxyflavonoids,tanninsCarotenoids,flavonoidsEffectivenessFactorsBDEofO-HgroupkJ/mol);(315-380lipophilicityChelateringstability;metalaccessibilityConjugateddoublebondsystemcarvacrol,LipidbilayersomecellThymol,Fe³⁺,MetalchelationFe²⁺,Cu²⁺¹O₂-mediatedoxidationBacterialSingletoxygenquenchingMembraneGRJNST,Volume:04-Issue2(2026)/ISSNP:2790-7643ArticleID:2065https://doi.org/10.53762/grjnst.04.02.16G.2065Page6disruptionmembranesisothiocyanatesEnzymeinhibitionQuorumsensinginterferenceMicrobialmetabolicenzymesBacterialvirulence,biofilmIsothiocyanates,flavonoidssomeQuercetin,naringenin,apigeninAbbreviation:BDE,bonddissociationenthalpypartitioning;Gram-positive>Gram-negativeCovalentmodification;electrophilicityAutoinducerbindingreceptorthiol3.1.1RadicalScavengingThephenoliccompoundsstopradicalchainreactionsbydonatinghydrogenatomstoperoxylradicals(LOO)toproducerelativelystablephenoxylradicalsthatarenoteffectiveoxidationpropagators.Thestandardbonddissociationenergy(BDE)oftheO-Hgroupofphenolsatroomtemperatureis315-380kJ/mol,whichissignificantlylowerthanthe380-420kJ/molneededtoabstractmethylenehydrogenofpolyunsaturatedfattyacids(Wrightetal.,2001).Additionalresonancestabilizationisthepresenceofortho-dihydroxy(catechol)structureswhichareintramolecularlyhydrogenbonded.3.1.2MetalChelationLipidoxidationiscatalyzedbytransitionmetalions(iron,copper)withthetransformationoflipidhydroperoxidestoreactivealkoxyl(LO•)andperoxylradicals.Phenoliccompoundschelatemetalionswithbothhydroxylandcarbonylgroups;catecholstructureproducesfive-memberedchelateringsespeciallywhenthemetalionsarechelated(KhokharandApenten,2003).Nevertheless,thehemeiron,whichisthemostcommonforminmeat,isstillmostlyinsolubleinaqueous-phasechelators,butsomeflavonoids(quercetin,myricetin)alsoreactdirectlywithhemeiron,impairingitsperoxidaseactivity.3.2AntimicrobialMechanisms3.2.1MembraneDisruptionPhenolicsubstancesandessentialoilconstituentsareabsorbedintobacterialmembranesandalterfluidityandintegrityinthem.ThesinglemembraneisenclosedbyarelativelyporouspeptidoglycanandthereforeGram-positivebacteriaaremoreproneascomparedtoGram-negativebacteriawhoseoutermembranelipopolysaccharidelimitsthediffusionofhydrophobiccompounds(Burt,2004).Thymolandcarvacrolintercalateintotheacylchainregionofthemembrane,interferingwiththegeltoliquidcrystallinechangeover.EnzymeInhibitionandQuorumSensingisthethirdcategoryofstimulants.Isothiocyanateshaveacovalentreactionwiththiolgroups,whichinhibitsawidevarietyofmicrobialenzymessuchasenzymesofenergymetabolismandstressresponse(Faheyetal.,2001).FlavonoidspreventDNAgyraseanddihydrofolatereductase.Quercetinandnaringenin,atsub-inhibitoryconcentrations,disruptquorumsensingthroughcompetitiveGRJNST,Volume:04-Issue2(2026)/ISSNP:2790-7643ArticleID:2065https://doi.org/10.53762/grjnst.04.02.16G.2065Page7bindingtoautoinducerreceptorsanddonotexertaselectivepressuretochangevirulence(Vikrametal.,2010).3.3ColorStabilizationMeatcolorisstabilizedbyplantbioactivesby:(1)inhibitingoxidationofmyoglobinbyretardingtheaccumulationofoxidizingspecies,(2)inhibitingoxidationofmyoglobindirectlybyreducingmetmyoglobintoferrousmyoglobinbyelectrontransferand(3)chelatingcopperwhichmediatescoupledlipid-myoglobinoxidationNevertheless,athighconcentrations,proteindigestibilitycanbedecreasedbytheprotein-bindingcharacteristicsoftannins(Bravo,1998)andsomephenolicscanbepro-oxidantathighconcentrationsorinthepresenceoftransitionmetals(Caoetal.,1997).4.EnrichmentStrategiesThefourthmethodisknownasEndogenousEnrichment(AnimalFeeding).Endogenousenrichmentisusedtodepositbioactivesinmuscletissuebychangingthedietofanimals.Itisamethodwherebythecompoundsaredispersedthroughoutthematrixatthecellularlevelandcouldminimizethethermaldegradationduringprocessing.Transferefficiency,however,isusuallylowwithpolyphenols,whicharehighlymetabolizedandconjugatedinthegastrointestinaltractandliver(Manachetal.,2004).EnrichmentwithvitaminE(200-500mg/kgfeed):dietarysupplementationofvitaminE(200-500mg/kgfeed)hasbeenshowntoincreasemuscle200-500mg/kgfeed)hasbeenshowntoincreasemuscle200-500mg/kgfeed)hasbeenshowntoincreasemuscle200-500mgThesupplementationofseleniumusingselenizedyeastraisesmuscleseleniumlevelsandselenoproteinfunctions.Theenrichmentwithpolyphenolshashadvariedeffects;whereasinsomecases,grapepomaceandoliveleafsupplementationhaveincreasedthecontentofpolyphenolsinmuscles,theeffectsizeistypicallysmallincomparisonwithdirectaddition(Lucianoetal.,2009).Theenrichmentprocesscanalsobeexogenous(DirectIncorporation).Withdirectincorporation,thereisincreasedcontroloverendconcentrations,aswellasaccesstoabroaderspectrumofcompounds(Table3).Powderadditionofdriedplantmaterials(spices,fruitpowders)doesnotneedanyspecialequipmentbutischallengingtosensory.Extractincorporationenablesthedeliveryofstandardizedbioactiveswithlesssensoryeffects;extractsmadeusingwater,ethanol,orethanol-waterhavevaryingcompositionalprofiles(ShahidiandAmbigaipalan,2015).Table3:ComparisonofEnrichmentStrategiesParameterEndogenous(AnimalFeeding)Exogenous(DirectControlconcentrationoverfinalLimited,variableIncorporation)Precise,consistentGRJNST,Volume:04-Issue2(2026)/ISSNP:2790-7643ArticleID:2065https://doi.org/10.53762/grjnst.04.02.16G.2065DistributioninmatrixUniform,cellularlevelVariablebymixingmethodPage8CompoundoptionsLimitedbybioavailabilityWiderangeavailableSensoryimpactGenerallyminimalCanbesubstantialImplementationcostHigh(feedingduration)ModeratetolowRegulatorystatusGenerallyacceptedRequiresapprovalingredientsfornovelScalabilityLimitedbyanimalproductioncyclesHighlyscalableEncapsulationtechnologiesaddresslimitationsofdirectincorporation.Spraydryinginmaltodextrinorgumarabiciscommerciallymaturebutexposesbioactivestothermalstress.Liposomalencapsulationprotectsheat-sensitivecompoundsbutcostsremainhighforpremiumapplicationsonly(Fang&Bhandari,2010).5.ImpactonMeatProductQualityandSafety5.1PhysicochemicalPropertiesTheincorporationofplantbioactivesaffectspHbyorganicacidsinextracts(decreasingpH)orbufferingofplantproteins.Dietaryfibersareeffectiveinsignificantlyincreasingwater-holdingcapacity:insolublefibersretainwaterincapillarypores,whereassolublefiberscreatehydratedgels.Thetwomechanismsenhancecookingyieldandminimizepurgeloss(Peterssonetal.,2014).Phenoliccompoundsbindeachothertothemyofibrillarproteins,andthatmayenhancegelstrengthandhardness.Butovercrosslinkinggivesunwantedfirmness.Incorporationoffibertendstoenhancehardnessoftheproductanddecreaseitscohesiveness,aswellasdependingonthesizeofparticlesinthefiber(Talukder,2015).5.2OxidativeStabilityInmanystudies,thereisalowerlevelofthiobarbituricacidreactivesubstances(TBARS),lowerperoxidevalues,andlowerlevelsofhexanalintheplantenrichedproducts(Table4).Protectionisinfluencedbylipophilicity(moreeffectiveinhigh-fatfoods),processing(cookedvs.raw)andbioactiveconcentration.Table4:EfficacyofSelectedPlantExtractsinMeatProductsPlantSourceProductConcentrationKeyOutcomeReferenceGRJNST,Volume:04-Issue2(2026)/ISSNP:2790-7643ArticleID:2065https://doi.org/10.53762/grjnst.04.02.16G.2065millPlant-basedmeatanalogOlivewastewaterextractGreenteaextractPorkpatties200-30030g/kgGrapeextractseedCookedbeefpattiesmg/kg0.5-1.0%RosemaryextractPomegranatepeelextractOreganoessentialoil0.05-0.20%ChickennuggetsBeefburgers0.5-1.5%Porksausages0.05-0.10%Page9ReducedTBARSby60%at14daysTocaiMoțocetal.(2025)Extendedshelflifeby4-6daysTBARSreductioncomparabletoBHTReducedby75%at9daysExtendedoxidativestabilityby8daysReducedmicrobialcountsby2logCFU/ghexanalMcCarthyetal.(2016)Ahn(2007)al.etSmithetal.(2015)Turgutetal.(2016)Economouetal.(2017)Abbreviations:TBARS,thiobarbituricacidreactivesubstances;BHT,butylatedhydroxytolueneComparativestudiesshowsomeplantextractsachieveprotectionequivalenttoBHA/BHTatcomparableconcentrations(rosemary,oregano,olive),whileothersrequirehigherconcentrations.Thehighercostofplantextractsremainsabarrierforprice-sensitivemarketsegments.5.3MicrobialQualityTheantimicrobialeffectinmeatmatricesisusuallylessimpressivethantheantioxidanteffectbecauseoftheeffectsofphenoliccompoundsbindingtoproteinsandlipids,whichlimitstheaccessofmicrobestothem(Weissetal.,2010).Oreganoandthymeextractlowertotalviablecounts1-2logCFU/gandshelflifeupto2-5days.IsothiocyanateextractsareactiveagainstL.monocytogenesbutefficacyisoftensimilartothatofnitriteandconcentrationsoftheextractareusuallyrequiredtocauseunwantedsensoryproperties(Tajkarimietal.,2010).5.4SensoryPropertiesExtractshighinpolyphenolsaddbitternessandastringency,thelatterbeingaresponsetosalivaryproteins(DrewnowskiandGomez-Carneros,2000).Spiceandherbextractalsoaddtypicalflavors,suchasrosemary,oregano,andthymeaddMediterraneanflavoursthatcanbeusedwithmostmeatproductsandfruitextractscanaddsweetorsourflavoursthatarelessappropriateinsavourydishes.FunctionalbenefitConsumerstudiesshowmoderatelevelsofenrichment(0.1-0.5%extract)canbefunctionalwithoutgeneratinganysensorydifference.Theincreasedconcentrationsoffermoretechnicaladvantages,buttendtogeneratenoticeablevariationsthatdiminishconsumeracceptance(HwangandLee,2017).GRJNST,Volume:04-Issue2(2026)/ISSNP:2790-7643ArticleID:2065https://doi.org/10.53762/grjnst.04.02.16G.2065Page106.By-ProductValorizationandSustainability.Agriculturalwastescanbeusedasbioactivesourcesbecausetheyuseagri-foodby-products,whichmeetsbotheconomicandenvironmentalgoals(Table5).Hydroxytyrosolisfoundinolivemillwastewaterandpomaceinconcentrationsthatareeconomicaltoextractandreducesanenvironmentaldisposalissue(Roigetal.,2006).Table5:Agri-FoodBy-ProductsasSourcesofBioactiveBy-ProductAnnualConcentrationMeatKeyBioactivesGeneration(MT)30million(Mediterranean)OlivemillwastewaterHydroxytyrosol,tyrosol0.5-5g/LGrapepomacemillion15(global)Proanthocyanidins,anthocyanins3-8%weightdryPomegranatepeel3(global)millionPunicalagin,ellagicacid15-25%dryweightApplepomaceCitruspeelsmillionmillion4(global)15(global)Quercetin,phloridzin,fiberHesperidin,naringin,pectin1-3%polyphenols2-5%flavonoidsPotatopeels2million(global)Caffeic,chlorogenicacids0.5-1.5%dryweighthighApplicationPotentialHigh(antioxidant,cleanlabel)High(polyphenol+fiber)Very(potentantioxidant)Moderate(fiber-rich)Moderate(pectinflavonoids)Lowmoderate+toGreenextractionmethodshavelessenvironmentalimpact:solvent-freeextractscanbeformedbyusingsupercriticalCO2extraction,buthigh-pressureequipmentisrequired,whereaspressurizedliquidextractionandultrasound-assistedextractionareintermediatemethodswithlesssolventusage(Chematetal.,2017).Lifecycleanalysisshowsthattheoverallenvironmentalimpactcanbedecreasedbyafactorof30-50inthecaseofby-productvalorizationversusvirginproductionofbioactive(Galanakis,2012).7.ChallengesandFutureDirections7.1CurrentChallengesThefirstchallengeisitssensorycompatibility.Toattaintechnicalfunctionalityatconcentrationlevelsthatarelowerthansensorydetectionlimitsitisnecessarytothinkdeeplyaboutthebioactivesources,encapsulationtechnologiesandproduct-specificGRJNST,Volume:04-Issue2(2026)/ISSNP:2790-7643ArticleID:2065https://doi.org/10.53762/grjnst.04.02.16G.2065Page11optimization(Brewer,2011).Retentionofbioavailabilityandbioactivityduringprocessingandstoragelimitsefficacy.Heattreatment(cooking,pasteurization)destroysheatsensitivecompounds,andstoragelossesarefurthercausedbylightandoxygenexposure.Tosomeextent,theseissuesareresolvedwiththehelpofencapsulationandregardtocarefulprocessingconditions(Davidov-Pardoetal.,2015).Dependingonjurisdiction,regulatoryapprovalofnovelplantextractsisdifferent.TheEUneedsnewfoodapprovalofextractswithnohistoryofsignificantconsumptionwhereastheUSGRAS(GenerallyRecognizedasSafe)decisionneedsasubstantialamountofsafetyevidence(Nabors,2005).CostcompetitivenessCostcompetitivenesswiththesyntheticpreservativesisstillachallenge.Althoughby-productvalorizationsavesoncosts,theprocessofpurifyingtheproducttothefood-gradeleveliscostly.Thegapisstillbeingreducedbyeconomiesofscaleandbettertechnologiesinextraction.7.2FutureResearchDirectionstargetedproductionofbioactivesthroughprecisionfermentationprovideshigh-purityanduniformbioactivesregardlessofseasonalorgeographicalfluctuations.Compoundssuchasresveratrol,vanillin,andotherphenolicshavealreadybeensuccessfullyproducedusingyeastandbacterialplatforms(PaddonandKeasling,2014).Inparallel,nanoencapsulationtechnologies—includingsolidlipidnanoparticles,nanostructuredlipidcarriers,andcyclodextrincomplexes—havedemonstratedstrongpotentialtoenhancethesolubility,stability,andcontrolledreleaseofbioactiveswithinmeatmatrices(Ezhilarasietal.,2013).However,challengesrelatedtolarge-scaleproductionandregulatoryapprovalstillneedtobeaddressed.Furthermore,optimizationofthemeat–bioactiveinterfacethroughapproachessuchasmultilayeredproductstructures,emulsion-baseddeliverysystemsforlipophiliccompounds,andco-crystallizationtechniquestomaskundesirableflavorsrepresentsacriticalareaofadvancement(McClements,2015).Inthelongterm,thedevelopmentofcustomizedfunctionalmeatproductstailoredtospecifichealthneeds—suchascardiovascularprotection,glycemiccontrol,andanti-inflammatoryeffects—willrequireimprovedstrategiesforbioactivestabilizationandcost-effectiveproduction.Inthiscontext,thecollectivebodyofrecentresearchprovidesstrongfoundationalsupportforthesefuturedirectionsbydemonstratinghowfunctionalingredientsandadvancedfoodsystemscanbeeffectivelydesignedandapplied.Forinstance,theincorporationofprobioticculturessuchasLactobacillusrhamnosusintofoodsystemsillustratesthefeasibilityofmicrobial-assistedbioactiveenrichment(Ahmedetal.,2024),whichalignscloselywithprecisionfermentationstrategies.Similarly,thedevelopmentofhybridproteinsystems,includingsoy–wheyandwhey–cornformulations,highlightsthepotentialforstructurallyoptimizedmatricescapableofcarryingandstabilizingbioactivecompounds(Buttetal.,2025a;Buttetal.,2025b).Evidencefromnutritionalandclinicalstudiesfurthersupportsthefunctionalrelevanceofsuchbioactives,asphytochemical-richGRJNST,Volume:04-Issue2(2026)/ISSNP:2790-7643ArticleID:2065https://doi.org/10.53762/grjnst.04.02.16G.2065dietsandzincsupplementationhavebeenshowntoregulatemetabolicpathways,influenceIGF-1expression,andmodulateepigeneticmarkerslikeDNAmethylationassociatedwithobesityandinsulinresistance(Buttetal.,2026a;Buttetal.,2026b).Page12Moreover,comparativeevaluationsofconventionalandalternativemeatproductsdemonstratethatphysicochemical,microbial,andsensorypropertiescanbeoptimizedwithoutcompromisingsafetyorconsumeracceptability(Buttetal.,2024;Buttetal.,2025c),whichisessentialforsuccessfulbioactiveintegrationintomeatsystems.Supportingthis,studiesonfunctionaldietarycomponents—suchasoliveandflaxseedoilsinmitigatinghepatotoxicity(Khanetal.,2024)andprobioticyogurtinimprovingmetabolichealthandweightmanagement(Rashidetal.,2026)—reinforcethetherapeuticpotentialofbioactive-enrichedfoods.Thesefindingsdirectlycomplementtechnologicalstrategiessuchasemulsionsystemsandmultilayereddeliveryapproachesproposedformeat-bioactivefromhumanphysiologyandbiomechanicsresearch(Mahmoodetal.,2026)extendtheapplicationoffunctionalfoodstowardperformanceandrecovery,whileresearchonartificialintelligenceandsustainabilityemphasizestheimportanceofintegratingtechnologicalinnovationandsocio-environmentalconsiderationsintofuturefoodsystemdevelopment(Kamal&Butt,2026;Khurshidetal.,2026).interfaces.Additionally,insightsOverall,theintegrationofthesestudieswithemergingtechnologicaladvancementsunderscoresacleartransitiontowardnext-generationfunctionalmeatproducts,whereprecisionfermentation,nanoencapsulation,andoptimizeddeliverysystemsarecombinedwithevidence-basednutritionalstrategies.Thisconvergencenotonlyaddressescurrentlimitationsinstability,scalability,andconsumeracceptancebutalsopavesthewayforpersonalized,health-oriented,andsustainablefoodsolutions(Ahmedetal.,2024;Khanetal.,2024;Buttetal.,2024;Buttetal.,2025a;Buttetal.,2025b;Buttetal.,2025c;Buttetal.,2026a;Buttetal.,2026b;Rashidetal.,2026;Mahmoodetal.,2026;Kamal&Butt,2026;Khurshidetal.,2026;PaddonandKeasling,2014;Ezhilarasietal.,2013;McClements,2015).8.ConclusionPlant-basedbioactivecompoundsprovideafeasibleapproachtowarddesigningfunctionalmeatproductsthatmeettheconcernsofthepopulationabouttheirhealthandthedesireoftheconsumertouseclean-labelingredients.Thekeyclasses,suchaspolyphenols,dietaryfibers,plantproteins,andglycosylates,havemultifunctionalantioxidant,antimicrobial,andhealth-promotingpropertiesduetotheirwell-characterizedmultimodalmechanismsthatcompriseradicalscavenging,metalchelation,membranedisruption,andenzymeinhibition.Animalfeedingisamethodofendogenousenrichment,whichcanspreadbioactivesevenlybutwithlowtransferefficiencyofmostpolyphenols.Directadditionofpowders,extractsorencapsulatedpreparationsallowsexogenousenrichmentwithmoreaccuratecontrolofthefinalconcentrationsandaGRJNST,Volume:04-Issue2(2026)/ISSNP:2790-7643ArticleID:2065https://doi.org/10.53762/grjnst.04.02.16G.2065Page13broadenedrangeofcompoundssuchasagri-foodby-products.Valorizationofolivemillwastewater,grapepomace,pomegranatepeelandotherby-productsfitsintotheconceptofthecirculareconomyandminimizesexpenditures.Theincorporationofplantbioactivesusuallyenhancesoxidativestabilityandinmanycasesisasprotectiveasthesyntheticantioxidants.Smallerineffect,antimicrobialeffectsareabletoincreaseshelflifeby2-5dayswiththeproperextracts.Moderatelevelsofenrichment(0.1-0.5%extract)havefunctionaladvantagesbutarenotperceivableinsensorypropertiesinmanyproducts.Therearestillcriticalissuestoovercomehigherconcentrationsensorycompatibility,bioactivedegradationinprocessingandstorage,regulatoryacceptanceofnovelextracts,andcompetitivecostwithsyntheticpreservatives.Futureresearchneedsareprecisionfermentationtoachieveconsistency,highpurity;nanoencapsulationtoachieveincreasedstabilityandfinerrelease;hybridproductapproachestotheoptimummeat-bioactiveinterface;andlifecycleanalysistoquantifyenvironmentalbenefit.Theproductionoffunctionalmeatproductsthathavebeenfortifiedwithplantbioactivesisanoteworthywayinwhichthemeatindustrycanaddressthechangingconsumerneeds,societalhealthadviceandsustainabilitydemands.Interdisciplinarycooperationbetweenfoodscientists,nutritionists,sensoryspecialists,andprocessengineersisneededtomaximizethesecomplicatedmatricestoachievesuccess.ReferencesAhmed,N.,Saeed,M.,Asghar,A.,AbdullahButt,M.,Afzaal,M.,Saeed,F.,Wahab,R.,Alomar,S.Y.,Nawaz,A.,Akram,N.andTeferiAsres,D.,2024.UtilizationofLactobacillusrhamnosusasprobioticadjunctcultureforthedevelopmentoftempeh.InternationalJournalofFoodProperties,27(1),pp.1279-1289.Ahn,J.,Grün,I.U.,&Mustapha,A.(2007).Effectsofplantextractsonmicrobialgrowth,colorchange,andlipidoxidationincookedbeef.*FoodMicrobiology*,24(1),7-14.Ajila,C.M.,Brar,S.K.,Verma,M.,&PrasadaRao,U.J.S.(2012).Sustainablesolutionsforagro-processingwastemanagement:Anoverview.In*EnvironmentalProtectionStrategiesforSustainableDevelopment*(pp.293-329).Springer.Asioli,D.,Aschemann-Witzel,J.,Caputo,V.,Vecchio,R.,Annunziata,A.,Næs,T.,&Varela,P.(2017).Makingsenseofthe"cleanlabel"trends:Areviewofconsumerdefinitionsandfutureresearchdirections.*FoodResearchInternational*,99,58-71.Bouvard,V.,Loomis,D.,Guyton,K.Z.,Grosse,Y.,ElGhissassi,F.,Benbrahim-Tallaa,L.,&Straif,K.(2015).Carcinogenicityofconsumptionofredandprocessedmeat.*TheLancetOncology*,16(16),1599-1600.Bravo,L.(1998).Polyphenols:Chemistry,dietarysources,metabolism,andnutritionalsignificance.*NutritionReviews*,56(11),317-333.Brewer,M.S.(2011).Naturalantioxidants:Sources,compounds,mechanismsofaction,andpotentialapplications.*ComprehensiveReviewsinFoodScienceandFoodSafety*,10(4),221-247.Burt,S.(2004).Essentialoils:Theirantibacterialpropertiesandpotentialapplicationsinfoods—Arevi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