Ehud Rinott1, Ilan Youngster2, Anat Yaskolka Meir1, Gal Tsaban1, Hila Zelicha1, Alon Kaplan1, Dan Knights3, Kieran Tuohy4, Francesca Fava4, Matthias Uwe Scholz4, Oren Ziv5, Elad Reuven5, Amir Tirosh6, Assaf Rudich1, Matthias Blüher7, Michael Stumvoll7, Uta Ceglarek7, Karine Clement8, Omry Koren5, Dong D Wang9, Frank B Hu10, Meir J Stampfer10, Iris Shai11. 1. Faculty of Health Sciences, Ben-Gurion University of the Negev, Beer-Sheva, Israel. 2. Pediatric Division and Center for Microbiome Research, Shamir Medical Center, Be'er Ya'akov, Israel; Sackler School of Medicine, Tel-Aviv University, Tel-Aviv, Israel. Electronic address: youngsteri@shamir.gov.il. 3. BioTechnology Institute, University of Minnesota, St Paul, Minnesota; Department of Computer Science and Engineering, University of Minnesota, Minneapolis, Minnesota. 4. Department of Food Quality and Nutrition, Research and Innovation Centre, Fondazione Edmund Mach, Trento, Italy. 5. Azrieli Faculty of Medicine, Bar Ilan University, Safed, Israel. 6. Division of Endocrinology, Diabetes and Metabolism, Sheba Medical Center, Tel-Hashomer, Israel; Sackler School of Medicine, Tel-Aviv University, Tel-Aviv, Israel; Division of Endocrinology, Diabetes, and Hypertension, Brigham and Women's Hospital, Harvard Medical School, Boston, Massachusetts. 7. Department of Medicine, University of Leipzig, German. 8. Sorbonne University/Inserm, NutriOmics Research Unit, Nutrition Department, Pitié-Salpêtrière Hospital, Assistance-Publique Hopitaux de Paris, Paris, France. 9. Harvard T.H. Chan School of Public Health, Cambridge, Massachusetts. 10. Harvard T.H. Chan School of Public Health, Cambridge, Massachusetts; Channing Division of Network Medicine, Department of Medicine, Harvard Medical School and Brigham and Women's Hospital, Boston, Massachusetts. 11. Faculty of Health Sciences, Ben-Gurion University of the Negev, Beer-Sheva, Israel; Harvard T.H. Chan School of Public Health, Cambridge, Massachusetts. Electronic address: irish@bgu.ac.il.
Abstract
BACKGROUND & AIMS: We evaluated the efficacy and safety of diet-modulated autologous fecal microbiota transplantation (aFMT) for treatment of weight regain after the weight-loss phase. METHODS: In the DIRECT PLUS (Dietary Intervention Randomized Controlled Trial Polyphenols-Unprocessed) weight-loss trial (May 2017 through July 2018), abdominally obese or dyslipidemic participants in Israel were randomly assigned to healthy dietary guidelines, Mediterranean diet, and green-Mediterranean diet weight-loss groups. All groups received free gym membership and physical activity guidelines. Both isocaloric Mediterranean groups consumed 28 g/d walnuts (+440 mg/d polyphenols provided). The green-Mediterranean dieters also consumed green tea (3-4 cups/d) and a Wolffia globosa (Mankai strain, 100 g/d) green shake (+800 mg/d polyphenols provided). After 6 months (weight-loss phase), 90 eligible participants (mean age, 52 years; mean weight loss, 8.3 kg) provided a fecal sample that was processed into aFMT by frozen, opaque, and odorless capsules. The participants were then randomly assigned to groups that received 100 capsules containing their own fecal microbiota or placebo until month 14. The primary outcome was regain of the lost weight over the expected weight-regain phase (months 6-14). Secondary outcomes were gastrointestinal symptoms, waist circumference, glycemic status, and changes in the gut microbiome, as measured by metagenomic sequencing and 16s ribosomal RNA. We validated the results in a parallel in vivo study of mice specifically fed with Mankai compared with control chow diet. RESULTS: Of the 90 participants in the aFMT trial, 96% ingested at least 80 of 100 oralaFMT or placebo frozen capsules during the transplantation period. No aFMT-related adverse events or symptoms were observed. For the primary outcome, although no significant differences in weight regain were observed among the participants in the different lifestyle interventions during months 6-14 (aFMT, 30.4% vs placebo, 40.6%; P = .28), aFMT significantly attenuated weight regain in the green-Mediterranean group (aFMT, 17.1%, vs placebo, 50%; P = .02), but not in the dietary guidelines (P = .57) or Mediterranean diet (P = .64) groups (P for the interaction = .03). Accordingly, aFMT attenuated waist circumference gain (aFMT, 1.89 cm vs placebo, 5.05 cm; P = .01) and insulin rebound (aFMT, -1.46 ± 3.6 μIU/mL vs placebo, 1.64 ± 4.7 μIU/mL; P = .04) in the green-Mediterranean group but not in the dietary guidelines or Mediterranean diet (P for the interaction = .04 and .03, respectively). The green-Mediterranean diet was the only intervention to induce a significant change in microbiome composition during the weight-loss phase, and to prompt preservation of weight-loss-associated specific bacteria and microbial metabolic pathways (mainly microbial sugar transport) after the aFMT. In mice, Mankai-modulated aFMT in the weight-loss phase compared with control diet aFMT, significantly prevented weight regain and resulted in better glucose tolerance during a high-fat diet-induced regain phase (all, P < .05). CONCLUSIONS: Autologous FMT, collected during the weight-loss phase and administrated in the regain phase, might preserve weight loss and glycemic control, and is associated with specific microbiome signatures. A high-polyphenols, green plant-based or Mankai diet better optimizes the microbiome for an aFMT procedure. ClinicalTrials.gov number, NCT03020186.
RCT Entities:
BACKGROUND & AIMS: We evaluated the efficacy and safety of diet-modulated autologous fecal microbiota transplantation (aFMT) for treatment of weight regain after the weight-loss phase. METHODS: In the DIRECT PLUS (Dietary Intervention Randomized Controlled Trial Polyphenols-Unprocessed) weight-loss trial (May 2017 through July 2018), abdominally obese or dyslipidemic participants in Israel were randomly assigned to healthy dietary guidelines, Mediterranean diet, and green-Mediterranean diet weight-loss groups. All groups received free gym membership and physical activity guidelines. Both isocaloric Mediterranean groups consumed 28 g/d walnuts (+440 mg/d polyphenols provided). The green-Mediterranean dieters also consumed green tea (3-4 cups/d) and a Wolffia globosa (Mankai strain, 100 g/d) green shake (+800 mg/d polyphenols provided). After 6 months (weight-loss phase), 90 eligible participants (mean age, 52 years; mean weight loss, 8.3 kg) provided a fecal sample that was processed into aFMT by frozen, opaque, and odorless capsules. The participants were then randomly assigned to groups that received 100 capsules containing their own fecal microbiota or placebo until month 14. The primary outcome was regain of the lost weight over the expected weight-regain phase (months 6-14). Secondary outcomes were gastrointestinal symptoms, waist circumference, glycemic status, and changes in the gut microbiome, as measured by metagenomic sequencing and 16s ribosomal RNA. We validated the results in a parallel in vivo study of mice specifically fed with Mankai compared with control chow diet. RESULTS: Of the 90 participants in the aFMT trial, 96% ingested at least 80 of 100 oral aFMT or placebo frozen capsules during the transplantation period. No aFMT-related adverse events or symptoms were observed. For the primary outcome, although no significant differences in weight regain were observed among the participants in the different lifestyle interventions during months 6-14 (aFMT, 30.4% vs placebo, 40.6%; P = .28), aFMT significantly attenuated weight regain in the green-Mediterranean group (aFMT, 17.1%, vs placebo, 50%; P = .02), but not in the dietary guidelines (P = .57) or Mediterranean diet (P = .64) groups (P for the interaction = .03). Accordingly, aFMT attenuated waist circumference gain (aFMT, 1.89 cm vs placebo, 5.05 cm; P = .01) and insulin rebound (aFMT, -1.46 ± 3.6 μIU/mL vs placebo, 1.64 ± 4.7 μIU/mL; P = .04) in the green-Mediterranean group but not in the dietary guidelines or Mediterranean diet (P for the interaction = .04 and .03, respectively). The green-Mediterranean diet was the only intervention to induce a significant change in microbiome composition during the weight-loss phase, and to prompt preservation of weight-loss-associated specific bacteria and microbial metabolic pathways (mainly microbial sugar transport) after the aFMT. In mice, Mankai-modulated aFMT in the weight-loss phase compared with control diet aFMT, significantly prevented weight regain and resulted in better glucose tolerance during a high-fat diet-induced regain phase (all, P < .05). CONCLUSIONS: Autologous FMT, collected during the weight-loss phase and administrated in the regain phase, might preserve weight loss and glycemic control, and is associated with specific microbiome signatures. A high-polyphenols, green plant-based or Mankai diet better optimizes the microbiome for an aFMT procedure. ClinicalTrials.gov number, NCT03020186.
Authors: B E Ainsworth; W L Haskell; M C Whitt; M L Irwin; A M Swartz; S J Strath; W L O'Brien; D R Bassett; K H Schmitz; P O Emplaincourt; D R Jacobs; A S Leon Journal: Med Sci Sports Exerc Date: 2000-09 Impact factor: 5.411
Authors: Ruud S Kootte; Evgeni Levin; Jarkko Salojärvi; Loek P Smits; Annick V Hartstra; Shanti D Udayappan; Gerben Hermes; Kristien E Bouter; Annefleur M Koopen; Jens J Holst; Filip K Knop; Ellen E Blaak; Jing Zhao; Hauke Smidt; Amy C Harms; Thomas Hankemeijer; Jacques J G H M Bergman; Hans A Romijn; Frank G Schaap; Steven W M Olde Damink; Mariette T Ackermans; Geesje M Dallinga-Thie; Erwin Zoetendal; Willem M de Vos; Mireille J Serlie; Erik S G Stroes; Albert K Groen; Max Nieuwdorp Journal: Cell Metab Date: 2017-10-03 Impact factor: 27.287
Authors: Thomas C A Hitch; Lindsay J Hall; Sarah Kate Walsh; Gabriel E Leventhal; Emma Slack; Tomas de Wouters; Jens Walter; Thomas Clavel Journal: Mucosal Immunol Date: 2022-09-30 Impact factor: 8.701
Authors: Julia Hernandez-Baixauli; Pere Puigbò; Helena Torrell; Hector Palacios-Jordan; Vicent J Ribas Ripoll; Antoni Caimari; Josep M Del Bas; Laura Baselga-Escudero; Miquel Mulero Journal: Biomolecules Date: 2021-02-18
Authors: Annefleur M Koopen; Eduardo L Almeida; Ilias Attaye; Julia J Witjes; Elena Rampanelli; Soumia Majait; Marleen Kemper; Johannes H M Levels; Alinda W M Schimmel; Hilde Herrema; Torsten P M Scheithauer; Werner Frei; Lars Dragsted; Bolette Hartmann; Jens J Holst; Paul W O'Toole; Albert K Groen; Max Nieuwdorp Journal: Front Microbiol Date: 2021-06-10 Impact factor: 5.640