Investigación que respalda LyteFast
Referencias revisadas por pares que respaldan a previsión de peso, o balance enerxético, a pegada de carbono das dietas, a detección de glute, as bases de datos de nutrición e a análise de alimentos mediante IA.
Os enlaces ábrense na súa lingua cando estean dispoñibles • Priorizando a investigación de Harvard, Stanford e MIT
Previción de Peso
A previsión de peso utiliza modelos predictivos baseados nos principios do balance enerxético para proxectar tendencias futuras de peso a partir de datos recentes. A investigación mostra que a auto-monitorización do peso e da ingesta de calorías, combinada cun suavizado de tendencias para reducir o ruído diario, axuda ás persoas a comprender a súa traxectoria e a realizar axustes a tempo. A modelización predictiva a curto prazo transforma a túa traxectoria recente en previsións accionables que apoian a adherencia e os hábitos a longo prazo.
Key Studies
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Critical analysis of dual-energy x-ray absorptiometry-measured body composition changes with voluntary weight loss.
Obesity (Silver Spring, Md.) • 2025
Demostra a importancia da medición precisa da composición corporal no seguimento dos cambios de peso, apoiando a necesidade de suavización de tendencias nos modelos de previsión de peso.
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Exercise and eating motivation in weight loss maintenance: revisiting the motivational spillover with the NoHoW study.
Annals of behavioral medicine : a publication of the Society of Behavioral Medicine • 2025
Muestra como a auto-monitorización e os mecanismos de retroalimentación apoian o mantemento do peso a longo prazo, validando o enfoque de proporcionar previsións claras e visualización de tendencias.
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Systematic Review of Machine Learning applied to the Prediction of Obesity and Overweight.
Journal of medical systems • 2023
Revisión dos enfoques de aprendizaxe automática para a predición de peso, apoiando o uso de modelado predictivo en aplicacións de xestión do peso.
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Machine learning augmentation reduces prediction error in collective forecasting: development and validation across prediction markets with application to COVID events.
EBioMedicine • 2023
Demostra como o aprendizaxe automático pode mellorar a precisión das previsións, relevante para os modelos de predición de tendencias de peso.
Calorías Baseadas no Orzamento
Os orzamentos de calorías preestablecidos cunha clara retroalimentación de "dentro do orzamento" ou "fóra do orzamento" axudan aos usuarios a tomar decisións alimentarias informadas en tempo real. A investigación demostra que este enfoque de apoio á decisión mellora a adherencia aos obxectivos de calorías ao reducir a carga cognitiva e proporcionar retroalimentación inmediata e accionable. O sinxelo marco de "gastar vs. orzamento" alínea cos principios da economía comportamental que mostran que as persoas toman mellores decisións cando teñen restricións claras e retroalimentación instantánea sobre as súas eleccións.
Key Studies
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Exercise and eating motivation in weight loss maintenance: revisiting the motivational spillover with the NoHoW study.
Annals of behavioral medicine : a publication of the Society of Behavioral Medicine • 2025
Demostra que o establecemento de metas estruturadas e os mecanismos de retroalimentación melloran a adherencia aos obxectivos dietéticos, apoiando o enfoque de calorías baseado no orzamento.
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Intermittent fasting plus early time-restricted eating versus calorie restriction and standard care in adults at risk of type 2 diabetes: a randomized controlled trial.
Nature medicine • 2023
Demostra que os enfoques estruturados de xestión de calorías melloran a adherencia e os resultados en comparación coa atención estándar.
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Intermittent Fasting versus Continuous Calorie Restriction: Which Is Better for Weight Loss?
Nutrients • 2022
Compara diferentes estratexias de restrición de calorías, demostrando que orzamentos calóricos claros apoian a adherencia independentemente do enfoque temporal.
Déficit Calórico e Equilibrio Enerxético
O balance energético— a relación entre as calorías consumidas e as calorías queimadas— é o principal motor do cambio de peso. A investigación mostra de forma consistente que crear un déficit calórico conduce á perda de peso, mentres que un superávit conduce ao aumento de peso. Visualizar este déficit en tempo real axuda aos usuarios a comprender como as súas eleccións diarias impactan no seu progreso cara aos obxectivos. A aplicación traduce o balance energético a un linguaxe sinxela, mostrando a diferenza entre a ingesta actual e a meta, e que cambios poden pechar esa diferenza.
Key Studies
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Critical analysis of dual-energy x-ray absorptiometry-measured body composition changes with voluntary weight loss.
Obesity (Silver Spring, Md.) • 2025
Confirma que o equilibrio enerxético é o mecanismo fundamental que impulsa o cambio de peso, validando o enfoque do déficit calórico.
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Intermittent Fasting versus Continuous Calorie Restriction: Which Is Better for Weight Loss?
Nutrients • 2022
Demostra que o déficit calórico, independentemente do momento, impulsa a perda de peso, apoiando o principio do balance energético.
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Effectiveness of Early Time-Restricted Eating for Weight Loss, Fat Loss, and Cardiometabolic Health in Adults With Obesity: A Randomized Clinical Trial.
JAMA internal medicine • 2022
Demostra que o déficit calórico conseguido a través da alimentación restrinxida no tempo conduce a unha perda de peso mensurable, confirmando os principios do balance enerxético.
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Intermittent Fasting in Weight Loss and Cardiometabolic Risk Reduction: A Randomized Controlled Trial.
The journal of nursing research : JNR • 2022
Demostra que o déficit calórico é o mecanismo clave para a perda de peso, independentemente do momento do patrón alimentario.
Escáner de Alimentos AI
A intelixencia artificial e o aprendizaxe automático permiten o recoñecemento automatizado de alimentos a partir de fotos, descricións de texto e escaneado de códigos de barras. A investigación mostra que a estimación nutricional impulsada por IA pode proporcionar unha precisión razoable para alimentos comúns, axudando aos usuarios a rexistrar as súas comidas de forma máis rápida e consistente. A combinación de análise de fotos, escaneado de códigos de barras e análise de texto crea múltiples vías para o rexistro de alimentos, reducindo as barreiras para a auto-monitorización e mellorando a adherencia ao seguimento de calorías.
Key Studies
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DietAI24 as a framework for comprehensive nutrition estimation using multimodal large language models.
Communications medicine • 2025
Demostra como a IA e os grandes modelos de linguaxe poden estimar con precisión a nutrición a partir de imaxes e descricións de alimentos.
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Extract Nutritional Information from Bilingual Food Labels Using Large Language Models.
Journal of imaging • 2025
Demostra que a IA pode extraer información nutricional das etiquetas dos alimentos, apoiando o rexistro de alimentos baseado en códigos de barras e texto.
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Automated Artificial Intelligence-Based Thai Food Dietary Assessment System: Development and Validation.
Current developments in nutrition • 2024
Valida sistemas de recoñecemento de alimentos baseados en IA para a avaliación dietética, demostrando precisión en escenarios de rexistro de alimentos no mundo real.
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Natural language processing and machine learning approaches for food categorization and nutrition quality prediction compared with traditional methods.
The American journal of clinical nutrition • 2023
Compara a categorización de alimentos baseada en IA cos métodos tradicionais, mostrando que os enfoques de aprendizaxe automática poden categorizar eficazmente os alimentos e predecir a calidade nutricional.
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Enhancing Clinical Data Management Through Barcode Integration and Research Electronic Data Capture: Scalable and Adaptable Implementation Study.
JMIR formative research • 2025
Demostra a eficacia da escaneado de códigos de barras para a captura precisa de datos, apoiando o rexistro de alimentos baseado en códigos de barras.
Pegada de carbono
A produción de alimentos representa unha parte significativa das emisións globais de gases de efecto invernadoiro. A investigación mostra que diferentes alimentos teñen pegadas de carbono moi distintas, e as eleccións dietéticas poden ter un impacto substancial na sustentabilidade ambiental. Rastrear a pegada de carbono das comidas axuda aos usuarios a comprender o impacto ambiental das súas eleccións alimentarias e a tomar decisións máis sostibles. Os estudos demostran que incluso pequenos cambios na dieta poden reducir de forma significativa as emisións de carbono.
Key Studies
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Sustainable diets reduce diet-related greenhouse gas emissions and improve diet quality: results from the MyPlanetDiet randomized controlled trial.
The American journal of clinical nutrition • 2025
Demostra que os patróns dietéticos sostibles poden reducir as emisións de gases de efecto invernadoiro ao tempo que melloran a calidade da dieta, validando o seguimento da pegada de carbono.
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Are healthier diets more sustainable? A cross-sectional assessment of 8 diet quality indexes and 7 sustainability metrics.
The American journal of clinical nutrition • 2025
Demostra a relación entre a calidade da dieta e a sustentabilidade ambiental, apoiando a concienciación sobre a pegada de carbono nas eleccións alimentarias.
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Diet quality and environmental impact of university students' food choices at a South African university.
Frontiers in nutrition • 2025
Demostra que as eleccións alimentarias teñen impactos ambientais mensurables, validando a importancia do seguimento da pegada de carbono.
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Single-item substitutions can substantially reduce the carbon and water scarcity footprints of US diets.
The American journal of clinical nutrition • 2022
Demostra que pequenos cambios na dieta poden reducir de forma significativa a pegada de carbono, apoiando o valor do seguimento do carbono nas eleccións alimentarias.
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Cooking at Home, Fast Food, Meat Consumption, and Dietary Carbon Footprint among US Adults.
International journal of environmental research and public health • 2022
Mostra como diferentes eleccións alimentarias e métodos de preparación afectan a pegada de carbono, validando o seguimento da pegada de carbono a nivel de comida.
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Greenhouse gas emissions, cost, and diet quality of specific diet patterns in the United States.
The American journal of clinical nutrition • 2023
Compara as pegadas de carbono en diferentes patróns dietéticos, mostrando unha variación significativa e a importancia de realizar un seguimento.
Detección de Gluteína
Para as persoas con enfermidade celíaca ou sensibilidade ao glute, evitar o glute é esencial para a saúde. A investigación mostra que mesmo pequenas cantidades de glute poden causar síntomas e danos a longo prazo en individuos sensibles. A escaneado de códigos de barras e a análise de alimentos poden axudar a identificar produtos que contén glute, proporcionando unha proba rápida para apoiar a adherencia a unha dieta sen glute. Aínda que a aplicación proporciona indicadores baseados na información do produto, é importante ter en conta que é un estimador e non un substituto da lectura coidadosa das etiquetas ou da orientación médica.
Key Studies
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Diagnostic Accuracy of IgA Anti-Transglutaminase Assessed by Chemiluminescence: A Systematic Review and Meta-Analysis.
Nutrients • 2024
Revisa os métodos de diagnóstico para a enfermidade celíaca, subliñando a importancia da detección precisa de gluten para aqueles que padecen esta enfermidade.
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Recent advancements in the sensors for food analysis to detect gluten: A mini-review [2019-2023].
Food chemistry • 2024
Revisa os enfoques tecnolóxicos para a detección de gluten nos alimentos, apoiando o uso da análise de alimentos para o rastrexo de gluten.
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Evaluation of the Usefulness of an Automatable Immunoassay for Monitoring Celiac Disease by Quantification of Immunogenic Gluten Peptides in Urine.
Nutrients • 2023
Muestra a importancia de monitorizar a exposición ao gluten para as persoas con enfermidade celíaca, validando a necesidade de ferramentas de detección de gluten.
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Rapid Anti-tTG-IgA Screening Test for Early Diagnosis of Celiac Disease in Pediatric Populations.
Nutrients • 2023
Demostra a importancia da detección temprana e do seguimento da exposición ao glute na xestión da enfermidade celíaca.
Vixía do Xaxún e Modelado Predictivo
O xeito de comer en períodos intermitentes e a alimentación restrinxida por tempo son enfoques dietéticos que limitan a ingesta a fiestras de tempo específicas. A investigación mostra que os beneficios destes enfoques son en gran medida mediados pola ingesta total de calorías e a consistencia, en lugar de polo tempo só. A modelización predictiva axuda aos usuarios a ver como os seus patróns de xaxún se relacionan coas súas tendencias de peso e previsións. A aplicación relaciona as fiestras de xaxún coas orzamentos de calorías, tendencias e previsións, facendo que a relación entre o xaxún e os resultados sexa clara e accionable.
Key Studies
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Intermittent fasting strategies and their effects on body weight and other cardiometabolic risk factors: systematic review and network meta-analysis of randomised clinical trials.
BMJ (Clinical research ed.) • 2025
Revisión completa que mostra que as estratexias de xaxún intermitente son efectivas para a perda de peso, con beneficios mediados pola redución de calorías.
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Time-restricted eating: Watching the clock to treat obesity.
Cell metabolism • 2024
Revisión da investigación sobre a alimentación restrinxida no tempo, que mostra que os beneficios son principalmente debido á redución de calorías e non só ao tempo.
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Health Benefits of Intermittent Fasting.
Microbial physiology • 2024
Os beneficios para a saúde do xaxún intermitente apoian a integración do seguimento do xaxún coa xestión de calorías e peso.
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A meta-analysis comparing the effectiveness of alternate day fasting, the 5:2 diet, and time-restricted eating for weight loss.
Obesity (Silver Spring, Md.) • 2023
Compara diferentes enfoques de xaxún, mostrando que todos son efectivos cando crean un déficit calórico, apoiando a relación entre o xaxún e o equilibrio enerxético.
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Clinical application of intermittent fasting for weight loss: progress and future directions.
Nature reviews. Endocrinology • 2022
Revisa a evidencia clínica sobre o jejum intermitente, enfatizando que os resultados están relacionados coa ingesta de calorías e apoiando a modelización predictiva dos efectos do jejum.
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Time-restricted Eating for the Prevention and Management of Metabolic Diseases.
Endocrine reviews • 2022
Revisión completa do consumo de alimentos restrinxido no tempo, que mostra a súa efectividade cando se combina cunha conciencia e seguimento das calorías.
Referencias Completas
Lista completa de todas as referencias revisadas por pares. As etiquetas indican que características soporta cada referencia.
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1Critical analysis of dual-energy x-ray absorptiometry-measured body composition changes with voluntary weight loss.Heymsfield SB, Ramirez S, Yang S et al. • Obesity (Silver Spring, Md.) • 2025[Calorie Deficit][Weight Forecast]
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2Exercise and eating motivation in weight loss maintenance: revisiting the motivational spillover with the NoHoW study.Palmeira AL, Carraça EV, Santos I et al. • Annals of behavioral medicine : a publication of the Society of Behavioral Medicine • 2025
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3Diet quality and environmental impact of university students' food choices at a South African university.Sahadeo S, Naicker A, Makanjana O et al. • Frontiers in nutrition • 2025[Carbon Footprint]
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4Considering greenhouse gas emissions from feed production in diet formulation for dairy cows as a means of reducing the carbon footprint.Managos M, Lindahl C, Agenäs S et al. • Animal : an international journal of animal bioscience • 2025[AI Food Scanner][Carbon Footprint]
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5Are healthier diets more sustainable? A cross-sectional assessment of 8 diet quality indexes and 7 sustainability metrics.Conrad Z, Thorne-Lyman AL, Wu S et al. • The American journal of clinical nutrition • 2025[AI Food Scanner][Carbon Footprint]
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6Enhancing Clinical Data Management Through Barcode Integration and Research Electronic Data Capture: Scalable and Adaptable Implementation Study.Zhang R, Chiron S, Tyree R et al. • JMIR formative research • 2025[AI Food Scanner]
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7Extract Nutritional Information from Bilingual Food Labels Using Large Language Models.Assiri FY, Alahmadi MD, Almuashi MA et al. • Journal of imaging • 2025[AI Food Scanner]
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8Intermittent fasting strategies and their effects on body weight and other cardiometabolic risk factors: systematic review and network meta-analysis of randomised clinical trials.Semnani-Azad Z, Khan TA, Chiavaroli L et al. • BMJ (Clinical research ed.) • 2025[Fasting View]
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9DietAI24 as a framework for comprehensive nutrition estimation using multimodal large language models.Yan R, Luo H, Lu J et al. • Communications medicine • 2025[AI Food Scanner]
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10Retinopathy of Prematurity.Kaur K, Mikes BA • Journal • 2025
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11Machine learning for forecasting initial seizure onset in neonatal hypoxic-ischemic encephalopathy.Bernardo D, Kim J, Cornet MC et al. • Epilepsia • 2025[Weight Forecast]
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12Machine learning-based prediction of G-CSF-induced hematopoietic stem cell mobilization outcomes in healthy volunteers.Shi C, Zeng X, Ge J et al. • Bone marrow transplantation • 2025[Weight Forecast]
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13Sustainable diets reduce diet-related greenhouse gas emissions and improve diet quality: results from the MyPlanetDiet randomized controlled trial.Davies KP, Gibney ER, Leonard UM et al. • The American journal of clinical nutrition • 2025[AI Food Scanner][Carbon Footprint][Carbon Footprint]
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14Sustainable Breastfeeding: A State-of-the Art Review.Bai YK, Alsaidi M • Journal of human lactation : official journal of International Lactation Consultant Association • 2024
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15Environmental and Health Sustainability of the Mediterranean Diet: A Systematic Review.Lorca-Camara V, Bosque-Prous M, Bes-Rastrollo M et al. • Advances in nutrition (Bethesda, Md.) • 2024[AI Food Scanner][Carbon Footprint]
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16[Analysis of food carbon footprint and its socio-demographic disparities in China in 2018].Hong X, Li W, Wang L et al. • Wei sheng yan jiu = Journal of hygiene research • 2024[Carbon Footprint]
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17The impact of slaughter weight and sex on the carbon footprint of pig feed intake.De Cuyper C, Van den Broeke A, Van Linden V et al. • Animal : an international journal of animal bioscience • 2024
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18Diagnostic Accuracy of IgA Anti-Transglutaminase Assessed by Chemiluminescence: A Systematic Review and Meta-Analysis.Pjetraj D, Pulvirenti A, Moretti M et al. • Nutrients • 2024
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19Recent advancements in the sensors for food analysis to detect gluten: A mini-review [2019-2023].Jain S, Lamba BY, Dubey SK • Food chemistry • 2024[Gluten Detection]
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20Automated Artificial Intelligence-Based Thai Food Dietary Assessment System: Development and Validation.Chotwanvirat P, Prachansuwan A, Sridonpai P et al. • Current developments in nutrition • 2024[AI Food Scanner][AI Food Scanner]
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21Time-restricted eating: Watching the clock to treat obesity.Ezpeleta M, Cienfuegos S, Lin S et al. • Cell metabolism • 2024[Fasting View]
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22Health Benefits of Intermittent Fasting.Reddy BL, Reddy VS, Saier MH Jr • Microbial physiology • 2024[Fasting View]
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23Effect of intermittent fasting 16:8 and 14:10 compared with control-group on weight reduction and metabolic outcomes in obesity with type 2 diabetes patients: A randomized controlled trial.Sukkriang N, Buranapin S • Journal of diabetes investigation • 2024[Fasting View]
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24Interpretable machine learning model for new-onset atrial fibrillation prediction in critically ill patients: a multi-center study.Guan C, Gong A, Zhao Y et al. • Critical care (London, England) • 2024[Weight Forecast]
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25Machine learning based clinical prediction model for 1-year mortality in Sepsis patients with atrial fibrillation.Meng H, Guo L, Pan Y et al. • Heliyon • 2024[Weight Forecast]
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26Machine learning for air quality index (AQI) forecasting: shallow learning or deep learning?Kalantari E, Gholami H, Malakooti H et al. • Environmental science and pollution research international • 2024[Weight Forecast]
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27Health outcomes, environmental impacts, and diet costs of adherence to the EAT-Lancet Diet in China in 1997-2015: a health and nutrition survey.Cai H, Talsma EF, Chang Z et al. • The Lancet. Planetary health • 2024[Carbon Footprint]
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28Adherence to a Planetary Health Diet, Environmental Impacts, and Mortality in Chinese Adults.Ye YX, Geng TT, Zhou YF et al. • JAMA network open • 2023[Carbon Footprint]
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29Environmental impacts and diet quality of popular diet models compared to Turkey's national nutrition guidelines.Kemaloglu M, Öner N, Soylu M • Nutrition & dietetics : the journal of the Dietitians Association of Australia • 2023[Carbon Footprint]
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30Forage based diet as an alternative to a high concentrate diet for finishing young bulls - Effects on growth performance, greenhouse gas emissions and meat quality.Santos-Silva J, Alves SP, Francisco A et al. • Meat science • 2023[Carbon Footprint]
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31Evaluation of the Usefulness of an Automatable Immunoassay for Monitoring Celiac Disease by Quantification of Immunogenic Gluten Peptides in Urine.Segura V, Ruiz-Carnicer Á, Mendía I et al. • Nutrients • 2023[Gluten Detection]
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32Rapid Anti-tTG-IgA Screening Test for Early Diagnosis of Celiac Disease in Pediatric Populations.Mendia I, Segura V, Ruiz-Carnicer Á et al. • Nutrients • 2023[Gluten Detection]
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33Natural language processing and machine learning approaches for food categorization and nutrition quality prediction compared with traditional methods.Hu G, Ahmed M, L'Abbé MR • The American journal of clinical nutrition • 2023[Weight Forecast][AI Food Scanner][AI Food Scanner]
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34A meta-analysis comparing the effectiveness of alternate day fasting, the 5:2 diet, and time-restricted eating for weight loss.Elortegui Pascual P, Rolands MR, Eldridge AL et al. • Obesity (Silver Spring, Md.) • 2023[Fasting View]
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35Intermittent fasting plus early time-restricted eating versus calorie restriction and standard care in adults at risk of type 2 diabetes: a randomized controlled trial.Teong XT, Liu K, Vincent AD et al. • Nature medicine • 2023[Budget-Based Calories][Calorie Deficit][Fasting View]
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36[Intermittent fasting and human metabolic health].Carvajal V, Marín A, Gihardo D et al. • Revista medica de Chile • 2023[Fasting View]
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37Systematic Review of Machine Learning applied to the Prediction of Obesity and Overweight.Ferreras A, Sumalla-Cano S, Martínez-Licort R et al. • Journal of medical systems • 2023[Weight Forecast][Weight Forecast][Weight Forecast]
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38Machine learning augmentation reduces prediction error in collective forecasting: development and validation across prediction markets with application to COVID events.Gruen A, Mattingly KR, Morwitch E et al. • EBioMedicine • 2023[Weight Forecast]
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39A Machine Learning Model Ensemble for Mixed Power Load Forecasting across Multiple Time Horizons.Giamarelos N, Papadimitrakis M, Stogiannos M et al. • Sensors (Basel, Switzerland) • 2023[Weight Forecast]
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40Accurate prediction of calving in dairy cows by applying feature engineering and machine learning.Vázquez-Diosdado JA, Gruhier J, Miguel-Pacheco GG et al. • Preventive veterinary medicine • 2023[Weight Forecast]
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41Application of machine learning algorithms to construct and validate a prediction model for coronary heart disease risk in patients with periodontitis: a population-based study.Wang Y, Ni B, Xiao Y et al. • Frontiers in cardiovascular medicine • 2023[Weight Forecast]
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42Population Pharmacokinetic Modeling Combined With Machine Learning Approach Improved Tacrolimus Trough Concentration Prediction in Chinese Adult Liver Transplant Recipients.Li ZR, Li RD, Niu WJ et al. • Journal of clinical pharmacology • 2023[Weight Forecast]
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43The importance of eggs in an environmentally sustainable diet.Mason P • Nutrition bulletin • 2023[AI Food Scanner][Carbon Footprint][Carbon Footprint]
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44Carbon dioxide (CO(2)) emissions and adherence to Mediterranean diet in an adult population: the Mediterranean diet index as a pollution level index.García S, Bouzas C, Mateos D et al. • Environmental health : a global access science source • 2023[Carbon Footprint]
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45Carbon Footprint of Away-From-Home Food Consumption in Brazilian Diet.Bezerra IN, Verde SMML, Almeida BS et al. • International journal of environmental research and public health • 2022[Carbon Footprint]
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46Water-Food-Carbon Nexus Related to the Producer-Consumer Link: A Review.Wang J, Sun S, Yin Y et al. • Advances in nutrition (Bethesda, Md.) • 2022[Carbon Footprint]
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47Ultra-processed food intake and diet carbon and water footprints: a national study in Brazil.Garzillo JMF, Poli VFS, Leite FHM et al. • Revista de saude publica • 2022[Carbon Footprint]
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48Cooking at Home, Fast Food, Meat Consumption, and Dietary Carbon Footprint among US Adults.Wolfson JA, Willits-Smith AM, Leung CW et al. • International journal of environmental research and public health • 2022[Carbon Footprint]
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49Food purchase behaviour in a Finnish population: patterns, carbon footprints and expenditures.Meinilä J, Hartikainen H, Tuomisto HL et al. • Public health nutrition • 2022[Carbon Footprint]
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50The positive climate impact of the Mediterranean diet and current divergence of Mediterranean countries towards less climate sustainable food consumption patterns.Castaldi S, Dembska K, Antonelli M et al. • Scientific reports • 2022[AI Food Scanner][Carbon Footprint]
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51Single-item substitutions can substantially reduce the carbon and water scarcity footprints of US diets.Rose D, Willits-Smith AM, Heller MC • The American journal of clinical nutrition • 2022[Carbon Footprint]
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52Carbon Footprint Reduction by Transitioning to a Diet Consistent with the Danish Climate-Friendly Dietary Guidelines: A Comparison of Different Carbon Footprint Databases.Trolle E, Nordman M, Lassen AD et al. • Foods (Basel, Switzerland) • 2022[Carbon Footprint]
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53Clinical application of intermittent fasting for weight loss: progress and future directions.Varady KA, Cienfuegos S, Ezpeleta M et al. • Nature reviews. Endocrinology • 2022[Fasting View]
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54Intermittent Fasting and Metabolic Health.Vasim I, Majeed CN, DeBoer MD • Nutrients • 2022[Fasting View]
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55Effectiveness of Early Time-Restricted Eating for Weight Loss, Fat Loss, and Cardiometabolic Health in Adults With Obesity: A Randomized Clinical Trial.Jamshed H, Steger FL, Bryan DR et al. • JAMA internal medicine • 2022[Fasting View]
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56Intermittent Fasting versus Continuous Calorie Restriction: Which Is Better for Weight Loss?Zhang Q, Zhang C, Wang H et al. • Nutrients • 2022[Budget-Based Calories][Calorie Deficit][Fasting View]
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57Intermittent Fasting in Weight Loss and Cardiometabolic Risk Reduction: A Randomized Controlled Trial.Chair SY, Cai H, Cao X et al. • The journal of nursing research : JNR • 2022[Fasting View]
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58Time-restricted Eating for the Prevention and Management of Metabolic Diseases.Manoogian ENC, Chow LS, Taub PR et al. • Endocrine reviews • 2022[Fasting View]
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59Time restricted eating for the prevention of type 2 diabetes.Cienfuegos S, McStay M, Gabel K et al. • The Journal of physiology • 2022
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60Design of Machine Learning Algorithm for Tourism Demand Prediction.Yu N, Chen J • Computational and mathematical methods in medicine • 2022[Weight Forecast]