Coupling in vitro food digestion with in vitro epithelial absorption; recommendations for biocompatibility.
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M. Corredig | G. Mamone | B. Miralles | L. Giblin | A. Cilla | R. Barberá | S. Bastiaan-Net | M. Faria | M. Santos-Hernández | E. Arranz | A. Kondrashina | J. F. Young | L. Tomás-Cobos | Negin Hashemi | Martin Krøyer Rasmussen | Negin Hashemi
[1] A. Brodkorb,et al. Dairy and plant based protein beverages: In vitro digestion behaviour and effect on intestinal barrier biomarkers. , 2023, Food research international.
[2] E. Abdel‐Aal,et al. Bioaccessibility and Cellular Uptake of Lutein, Zeaxanthin and Ferulic Acid from Muffins and Breads Made from Hairless Canary Seed, Wheat and Corn Blends , 2023, Foods.
[3] G. Mamone,et al. Optimized extraction and large-scale proteomics of pig jejunum brush border membranes for use in in vitro digestion models. , 2022, Food research international.
[4] R. Portmann,et al. In vitro digestibility of dietary proteins and in vitro DIAAS analytical workflow based on the INFOGEST static protocol and its validation with in vivo data. , 2022, Food chemistry.
[5] Xiaowei Zhang,et al. Current in Vitro and Animal Models for Understanding Foods: Human Gut-Microbiota Interactions. , 2022, Journal of agricultural and food chemistry.
[6] Christian Fiil Nielsen,et al. Ultra‐High Temperature Treatment and Storage of Infant Formula Induces Dietary Protein Modifications, Gut Dysfunction, and Inflammation in Preterm Pigs , 2022, Molecular nutrition & food research.
[7] P. Gerk,et al. The Caco-2 Model: Modifications and Enhancements to Improve Efficiency and Predictive Performance. , 2022, International journal of pharmaceutics.
[8] J. Marchal,et al. Solid lipid nanoparticles to improve bioaccessibility and permeability of orally administered maslinic acid , 2022, Drug delivery.
[9] B. Miralles,et al. In vitro digestion of milk proteins including intestinal brush border membrane peptidases. Transepithelial transport of resistant casein domains. , 2022, Food research international.
[10] José Manuel Barat Baviera,et al. Safety evaluation of the food enzyme containing trypsin, chymotrypsin, α‐amylase and triacylglycerol lipase from porcine pancreas , 2022, EFSA journal. European Food Safety Authority.
[11] A. Alegría,et al. Sterol bioaccessibility in a plant sterol-enriched beverage using the INFOGEST digestion method: Influence of gastric lipase, bile salts and cholesterol esterase. , 2022, Food chemistry.
[12] José Luan da Paixão Teixeira,et al. Bioavailability evaluation of calcium, magnesium and zinc in Brazilian cheese through a combined model of in vitro digestion and Caco-2 cells , 2021, Journal of Food Composition and Analysis.
[13] E. Grilli,et al. Assessing Intestinal Health. In Vitro and Ex vivo Gut Barrier Models of Farm Animals: Benefits and Limitations , 2021, Frontiers in Veterinary Science.
[14] Rodrigo Cristofoletti,et al. Navigating Through Cell-Based In vitro Models Available for Prediction of Intestinal Permeability and Metabolism: Are We Ready for 3D? , 2021, The AAPS Journal.
[15] M. Paulsson,et al. The effect of free convection on apparent vitamin degradation kinetics , 2021, Food and Bioproducts Processing.
[16] T. Grauwet,et al. INFOGEST inter-laboratory recommendations for assaying gastric and pancreatic lipases activities prior to in vitro digestion studies , 2021, Journal of Functional Foods.
[17] G. López‐García,et al. Antiproliferative effects of bioaccessible fractions of honeys from Sicilian black honeybee ( Apis mellifera ssp. sicula ) on human colorectal carcinoma cells , 2021, International Journal of Food Science & Technology.
[18] S. Scaglione,et al. In vitro models replicating the human intestinal epithelium for absorption and metabolism studies: A systematic review. , 2021, Journal of controlled release : official journal of the Controlled Release Society.
[19] A. Brodkorb,et al. Sodium butyrate converts Caco-2 monolayers into a leaky but healthy intestinal barrier resembling that of a newborn infant. , 2021, Food & function.
[20] A. Basson,et al. Regulation of Intestinal Inflammation by Soybean and Soy-Derived Compounds , 2021, Foods.
[21] E. Jacob‐Lopes,et al. Bioaccessibility and intestinal uptake of carotenoids from microalgae Scenedesmus obliquus , 2021 .
[22] B. Judson,et al. Pepsin Promotes Activation of Epidermal Growth Factor Receptor and Downstream Oncogenic Pathways, at Slightly Acidic and Neutral pH, in Exposed Hypopharyngeal Cells , 2021, International journal of molecular sciences.
[23] S. Pinho,et al. Effect of skimmed milk on intestinal tract: Prevention of increased reactive oxygen species and nitric oxide formation , 2021, International Dairy Journal.
[24] David J Brayden,et al. Sodium glycodeoxycholate and sodium deoxycholate as epithelial permeation enhancers: in vitro and ex vivo intestinal and buccal bioassays. , 2021, European journal of pharmaceutical sciences : official journal of the European Federation for Pharmaceutical Sciences.
[25] Y. Liao,et al. Fetal bovine serum albumin inhibits antimicrobial peptide activity and binds drug only in complex with α1-antitrypsin , 2021, Scientific reports.
[26] A. Brodkorb,et al. Thermal or membrane processing for Infant Milk Formula: Effects on protein digestion and integrity of the intestinal barrier. , 2021, Food chemistry.
[27] Molly Muleya,et al. A stable isotope approach to accurately determine iron and zinc bioaccessibility in cereals and legumes based on a modified INFOGEST static in vitro digestion method. , 2021, Food research international.
[28] M. L. Cuellar-Nuñez,et al. Colonic metabolites from digested Moringa oleifera leaves induced HT-29 cell death via apoptosis, necrosis, and autophagy , 2020, International journal of food sciences and nutrition.
[29] L. Qian,et al. Bile salt–dependent lipase promotes the barrier integrity of Caco-2 cells by activating Wnt/β-catenin signaling via LRP6 receptor , 2020, Cell and Tissue Research.
[30] D. Dębowski,et al. Bowman-Birk Inhibitors: Insights into Family of Multifunctional Proteins and Peptides with Potential Therapeutical Applications , 2020, Pharmaceuticals.
[31] M. Faria,et al. Influence of dietary patterns on contaminants bioaccessibility and intestinal transport by in vitro assays. , 2020, Food research international.
[32] D. Dupont,et al. Digestion of micellar casein in duodenum cannulated pigs. Correlation between in vitro simulated gastric digestion and in vivo data. , 2020, Food chemistry.
[33] I. Luzardo-Ocampo,et al. Fermented Non-Digestible Fraction of Andean Berry (Vaccinium meridionale Swartz) Juice Induces Apoptosis in Colon Adenocarcinoma Cells , 2020, Preventive nutrition and food science.
[34] R. Portmann,et al. Higher microbial diversity in raw than in pasteurized milk Raclette-type cheese enhances peptide and metabolite diversity after in vitro digestion. , 2020, Food chemistry.
[35] A. Mercadante,et al. Addition of either gastric lipase or cholesterol esterase to improve both β-cryptoxanthin ester hydrolysis and micellarization during in vitro digestion of fruit pulps. , 2020, Food research international.
[36] Ping Tong,et al. Antioxidant and anti-inflammatory potential of peptides derived from the in vitro gastrointestinal digestion of germinated and heat-treated foxtail millet (Setaria italica) proteins. , 2020, Journal of agricultural and food chemistry.
[37] H. Wichers,et al. Peptide Release after Simulated Infant In Vitro Digestion of Dry Heated Cow’s Milk Protein and Transport of Potentially Immunoreactive Peptides across the Caco-2 Cell Monolayer , 2020, Nutrients.
[38] H. Wichers,et al. Heat treatment of β-lactoglobulin affects its digestion and translocation in the upper digestive tract. , 2020, Food chemistry.
[39] S. Lorkowski,et al. Chemopreventive effects of raw and roasted oat flakes after in vitro fermentation with human faecal microbiota , 2020, International journal of food sciences and nutrition.
[40] I. Recio,et al. Induction of CCK and GLP-1 release in enteroendocrine cells by egg white peptides generated during gastrointestinal digestion. , 2020, Food chemistry.
[41] C. Gianfrani,et al. Comparative Analysis of in vitro Digestibility and Immunogenicity of Gliadin Proteins From Durum and Einkorn Wheat , 2020, Frontiers in Nutrition.
[42] M. Hamdi,et al. Antiproliferative activity of green, black tea and olive leaves polyphenols subjected to biosorption and in vitro gastrointestinal digestion in Caco-2 cells. , 2020, Food research international.
[43] A. Alegría,et al. Antiproliferative Effect of Bioaccessible Fractions of Four Brassicaceae Microgreens on Human Colon Cancer Cells Linked to Their Phytochemical Composition , 2020, Antioxidants.
[44] S. Lorkowski,et al. Study on chemopreventive effects of raw and roasted β-glucan-rich waxy winter barley using an in vitro human colon digestion model. , 2020, Food & function.
[45] Xingrong Ju,et al. Lipid-Lowering Effects and Intestinal Transport of Polyphenols Extract from Digested-Buckwheat in Caco-2/HepG2 Co-culture Models. , 2020, Journal of agricultural and food chemistry.
[46] R. Rosen,et al. Pepsin Triggers Neutrophil Migration Across Acid Damaged Lung Epithelium , 2019, Scientific Reports.
[47] Annaïg Lan,et al. Hyperosmolar environment and intestinal epithelial cells: impact on mitochondrial oxygen consumption, proliferation, and barrier function in vitro , 2019, Scientific Reports.
[48] M. Theumer,et al. Bioaccessibility of polyphenols and antioxidant properties of the white grape by simulated digestion and Caco-2 cell assays: Comparative study with its winemaking product. , 2019, Food research international.
[49] I. De Noni,et al. Bovine whey peptides transit the intestinal barrier to reduce oxidative stress in muscle cells. , 2019, Food chemistry.
[50] M. Kreft,et al. Demonstrating suitability of the Caco‐2 cell model for BCS‐based biowaiver according to the recent FDA and ICH harmonised guidelines , 2019, The Journal of pharmacy and pharmacology.
[51] M. Corredig,et al. INFOGEST static in vitro simulation of gastrointestinal food digestion , 2019, Nature Protocols.
[52] Issam Smaali,et al. Polyphenols bioaccessibility and bioavailability assessment in ipecac infusion using a combined assay of simulated in vitro digestion and Caco‐2 cell model , 2018, International Journal of Food Science & Technology.
[53] J. Yun,et al. Effects of pepsin and pepstatin on reflux tonsil hypertrophy in vitro , 2018, PloS one.
[54] I. De Noni,et al. Intestinal health benefits of bovine whey proteins after simulated gastrointestinal digestion , 2018, Journal of Functional Foods.
[55] V. D. Felice,et al. Bioaccessibility and Bioavailability of a Marine-Derived Multimineral, Aquamin-Magnesium , 2018, Nutrients.
[56] E. Li-Chan,et al. Transepithelial transport across Caco-2 cell monolayers of angiotensin converting enzyme (ACE) inhibitory peptides derived from simulated in vitro gastrointestinal digestion of cooked chicken muscles. , 2018, Food chemistry.
[57] H. M. Nielsen,et al. Evaluation of drug permeation under fed state conditions using mucus‐covered Caco‐2 cell epithelium , 2018, European journal of pharmaceutical sciences : official journal of the European Federation for Pharmaceutical Sciences.
[58] M. Corredig,et al. Sodium caseinate stabilized emulsions as a delivery system for epigallocatechin-gallate: Bioaccessibility, anti-proliferative activity and intestinal absorption , 2018 .
[59] A. Joyce,et al. Controlling denaturation and aggregation of whey proteins during thermal processing by modifying temperature and calcium concentration , 2018 .
[60] Peng-Li Hu,et al. Bile acid patterns in commercially available oxgall powders used for the evaluation of the bile tolerance ability of potential probiotics , 2018, PloS one.
[61] Christel A. S. Bergström,et al. Caco-2 Cell Conditions Enabling Studies of Drug Absorption from Digestible Lipid-Based Formulations , 2018, Pharmaceutical Research.
[62] F. Capozzi,et al. A first step towards a consensus static in vitro model for simulating full-term infant digestion. , 2018, Food chemistry.
[63] Lauren K Markell,et al. Incorporation of in vitro digestive enzymes in an intestinal epithelial cell line model for protein hazard identification. , 2017, Toxicology in vitro : an international journal published in association with BIBRA.
[64] M. Corredig,et al. In vitro uptake and immune functionality of digested Rosemary extract delivered through food grade vehicles. , 2017, Food research international.
[65] D. Laukens,et al. T84 monolayers are superior to Caco-2 as a model system of colonocytes , 2017, Histochemistry and Cell Biology.
[66] E. Li-Chan,et al. Investigation into the bioavailability of milk protein-derived peptides with dipeptidyl-peptidase IV inhibitory activity using Caco-2 cell monolayers. , 2017, Food & function.
[67] E. Çapanoğlu,et al. Anti‐inflammatory potential of black carrot (Daucus carota L.) polyphenols in a co‐culture model of intestinal Caco‐2 and endothelial EA.hy926 cells , 2017, Molecular nutrition & food research.
[68] M. Faria,et al. In vitro bioacessibility and transport across Caco-2 monolayers of haloacetic acids in drinking water. , 2016, Chemosphere.
[69] G. Ladics,et al. An experimental platform using human intestinal epithelial cell lines to differentiate between hazardous and non-hazardous proteins. , 2016, Food and chemical toxicology : an international journal published for the British Industrial Biological Research Association.
[70] N. Rigby,et al. Effect of protein corona magnetite nanoparticles derived from bread in vitro digestion on Caco-2 cells morphology and uptake. , 2016, The international journal of biochemistry & cell biology.
[71] J. Wiśniewski,et al. The Proteome of Filter-Grown Caco-2 Cells With a Focus on Proteins Involved in Drug Disposition. , 2016, Journal of pharmaceutical sciences.
[72] I. Seiquer,et al. Assessing the bioavailability of polyphenols and antioxidant properties of extra virgin argan oil by simulated digestion and Caco-2 cell assays. Comparative study with extra virgin olive oil. , 2015, Food chemistry.
[73] Jingbo Liu,et al. Transport of Antihypertensive Peptide RVPSL, Ovotransferrin 328-332, in Human Intestinal Caco-2 Cell Monolayers. , 2015, Journal of agricultural and food chemistry.
[74] A. Clemente,et al. The protective role of the Bowman-Birk protease inhibitor in soybean lunasin digestion: the effect of released peptides on colon cancer growth. , 2015, Food & function.
[75] B. Pedersen,et al. Interaction with Mixed Micelles in the Intestine Attenuates the Permeation Enhancing Potential of Alkyl-Maltosides. , 2015, Molecular pharmaceutics.
[76] A. Lamprecht,et al. Biorelevant media resistant co-culture model mimicking permeability of human intestine. , 2015, International journal of pharmaceutics.
[77] J. Tack,et al. Evaluation of fasted state human intestinal fluid as apical solvent system in the Caco-2 absorption model and comparison with FaSSIF. , 2015, European journal of pharmaceutical sciences : official journal of the European Federation for Pharmaceutical Sciences.
[78] L. Hoffmann,et al. Selective factors governing in vitro β-carotene bioaccessibility: negative influence of low filtration cutoffs and alterations by emulsifiers and food matrices. , 2014, Nutrition research.
[79] H. M. Nielsen,et al. Property profiling of biosimilar mucus in a novel mucus-containing in vitro model for assessment of intestinal drug absorption. , 2014, European journal of pharmaceutics and biopharmaceutics : official journal of Arbeitsgemeinschaft fur Pharmazeutische Verfahrenstechnik e.V.
[80] M. Corredig,et al. Bioefficacy of Tea Catechins Associated with Milk Caseins Tested Using Different In Vitro Digestion Models , 2014 .
[81] J. Schulzke,et al. Improved Cell Line IPEC-J2, Characterized as a Model for Porcine Jejunal Epithelium , 2013, PloS one.
[82] P. Ferranti,et al. Transport across Caco-2 monolayers of peptides arising from in vitro digestion of bovine milk proteins. , 2013, Food chemistry.
[83] F. Hu,et al. Lecithin in mixed micelles attenuates the cytotoxicity of bile salts in Caco-2 cells. , 2013, Toxicology in vitro : an international journal published in association with BIBRA.
[84] M. Yanda,et al. Human intestinal epithelial cell line SK-CO15 is a new model system to study Na(+)/H(+) exchanger 3. , 2012, American journal of physiology. Gastrointestinal and liver physiology.
[85] M. Larvin,et al. Cannabinoids mediate opposing effects on inflammation‐induced intestinal permeability , 2012, British journal of pharmacology.
[86] H. Ovaa,et al. A Multifunctional Protease Inhibitor To Regulate Endolysosomal Function , 2011, ACS chemical biology.
[87] G. García-Llatas,et al. Current and new insights on phytosterol oxides in plant sterol-enriched food. , 2011, Chemistry and physics of lipids.
[88] N. O'Brien,et al. Bioaccessibility, cellular uptake and transepithelial transport of α‐tocopherol and retinol from a range of supplemented foodstuffs assessed using the caco‐2 cell model , 2010 .
[89] S. Klomklao,et al. Biochemical properties of two isoforms of trypsin purified from the intestine of skipjack tuna (Katsuwonus pelamis). , 2009 .
[90] J. Espín,et al. Availability of polyphenols in fruit beverages subjected to in vitro gastrointestinal digestion and their effects on proliferation, cell-cycle and apoptosis in human colon cancer Caco-2 cells , 2009 .
[91] M. Shimizu,et al. The Effect of Hyperosmosis on Paracellular Permeability in Caco-2 Cell Monolayers , 2009, Bioscience, biotechnology, and biochemistry.
[92] M. A. Lasunción,et al. Transepithelial transport across Caco-2 cell monolayers of antihypertensive egg-derived peptides. PepT1-mediated flux of Tyr-Pro-Ile. , 2008, Molecular nutrition & food research.
[93] M. A. Lasunción,et al. Bioavailability of the antihypertensive peptide LHLPLP : Transepithelial flux of HLPLP , 2008 .
[94] P. Artursson,et al. Determination of drug permeability and prediction of drug absorption in Caco-2 monolayers , 2007, Nature Protocols.
[95] G. Ladics,et al. Stability of a set of allergens and non-allergens in simulated gastric fluid , 2007, International journal of food sciences and nutrition.
[96] Jeffrey W. Smith,et al. Inhibition of endothelial cell proliferation and angiogenesis by orlistat, a fatty acid synthase inhibitor , 2006, FASEB journal : official publication of the Federation of American Societies for Experimental Biology.
[97] B. Forbes,et al. Use of Simulated Intestinal Fluids with Caco-2 Cells and Rat Ileum , 2006, Drug development and industrial pharmacy.
[98] P. Mcgeer,et al. Chymotrypsin‐like proteases contribute to human monocytic THP‐1 cell as well as human microglial neurotoxicity , 2005, Glia.
[99] R. Farré,et al. Bioavailability of calcium from milk-based formulas and fruit juices containing milk and cereals estimated by in vitro methods (solubility, dialyzability, and uptake and transport by caco-2 cells). , 2005, Journal of agricultural and food chemistry.
[100] Zhenghong Yuan,et al. Establishment of a cell-based assay system for hepatitis C virus serine protease and its primary applications. , 2003, World journal of gastroenterology.
[101] P Augustijns,et al. Simulated intestinal fluid as transport medium in the Caco-2 cell culture model. , 2002, International journal of pharmaceutics.
[102] M. Laburthe,et al. Initiation of human colon cancer cell proliferation by trypsin acting at protease-activated receptor-2 , 2001, British Journal of Cancer.
[103] R. Farré,et al. Calcium, iron, and zinc uptake from digests of infant formulas by Caco-2 cells. , 2001, Journal of agricultural and food chemistry.
[104] A. Heck,et al. Orlistat, a New Lipase Inhibitor for the Management of Obesity , 2000, Pharmacotherapy.
[105] W. Marktl,et al. Calcium transport from mineral waters across caco-2 cells. , 1999, Journal of agricultural and food chemistry.
[106] O. A. Lee,et al. Caco-2 cell ferritin formation predicts nonradiolabeled food iron availability in an in vitro digestion/Caco-2 cell culture model. , 1998, The Journal of nutrition.
[107] E. Levy,et al. Endogenous lipase activity in Caco-2 cells. , 1998, Biochimica et biophysica acta.
[108] D. Challacombe,et al. A Morphological Study of β‐Lactoglobulin Absorption by Cultured Explants of the Human Duodenal Mucosa Using Immunocytochemical and Cytochemical Techniques , 1993, Journal of pediatric gastroenterology and nutrition.
[109] A. Turner,et al. A survey of membrane peptidases in two human colonic cell lines, Caco-2 and HT-29. , 1992, The Biochemical journal.
[110] R. Verger,et al. Inactivation of pancreatic and gastric lipases by THL and C12:0-TNB: a kinetic study with emulsified tributyrin. , 1991, Biochimica et biophysica acta.
[111] R Holmes,et al. Intestinal brush border revisited. , 1989, Gut.
[112] R. Ducroc,et al. Antigen Absorption by the Jejunal Epithelium of Children with Cow's Milk Allergy , 1988, Pediatric Research.
[113] F. Salituro,et al. Inhibition of aspartic proteases by pepstatin and 3-methylstatine derivatives of pepstatin. Evidence for collected-substrate enzyme inhibition. , 1985, Biochemistry.
[114] A. Marsset-Baglieri,et al. In vitro digestion of short-dough biscuits enriched in proteins and/or fibres using a multi-compartmental and dynamic system (2): Protein and starch hydrolyses. , 2016, Food chemistry.
[115] A. Stammati,et al. The Caco-2 cell line as a model of the intestinal barrier: influence of cell and culture-related factors on Caco-2 cell functional characteristics , 2005, Cell Biology and Toxicology.
[116] A. Barbat,et al. Differential expression of sucrase-isomaltase in clones isolated from early and late passages of the cell line Caco-2: evidence for glucose-dependent negative regulation. , 1994, Journal of cell science.