ISABEL ESPINOSA-SALINAS

Dr. ISABEL ESPINOSA-SALINAS

IMDEA Food Institute
orcid

Research Focus & Metrics

Academic Career Length

16Years (2011-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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6 February 2015 in Oncotarget
Verified
Journal Article
Open access
PDF file
TVTeodoro Vargas
Teodoro Vargas
JMJuan Moreno-Rubio
Juan Moreno-Rubio
JHJesús Herranz
Jesús Herranz
PCPaloma Cejas
Paloma Cejas
SMSusana Molina
Susana Molina
AMAna Ramírez de Molina
Ana Ramírez de Molina
ColoLipidGene: signature of lipid metabolism-related genes to predict prognosis in stage-II colon cancer patients ColoLipidGene: signature of lipid metabolism-related genes to predict prognosis in stage-II colon cancer patients

1 January 2023 in Database: The Journal of Biological Databases and Curation
Verified
Journal Article
Open access
SRSergio Romero-Tapiador
Sergio Romero-Tapiador
BLBlanca Lacruz-Pleguezuelos
Blanca Lacruz-Pleguezuelos
RTRuben Tolosana
Ruben Tolosana
GFGala Freixer
Gala Freixer
RDRoberto Daza
Roberto Daza
EPEnrique Carrillo de Santa Pau
Enrique Carrillo de Santa Pau
The increasing prevalence of diet-related diseases calls for an improvement in nutritional advice. Personalized nutrition aims to solve this problem by adapting dietary and lifestyle guidelines to the unique circumstances of each individual. With the latest advances in technology and data science, researchers can now automatically collect and analyze large amounts of data from a variety of sources, including wearable and smart devices. By combining these diverse data, more comprehensive insights of the human body and its diseases can be achieved. However, there are still major challenges to overcome, including the need for more robust data and standardization of methodologies for better subject monitoring and assessment. Here, we present the AI4Food database (AI4FoodDB), which gathers data from a nutritional weight loss intervention monitoring 100 overweight and obese participants during 1 month. Data acquisition involved manual traditional approaches, novel digital methods and the collection of biological samples, obtaining: (i) biological samples at the beginning and the end of the intervention, (ii) anthropometric measurements every 2 weeks, (iii) lifestyle and nutritional questionnaires at two different time points and (iv) continuous digital measurements for 2 weeks. To the best of our knowledge, AI4FoodDB is the first public database that centralizes food images, wearable sensors, validated questionnaires and biological samples from the same intervention. AI4FoodDB thus has immense potential for fostering the advancement of automatic and novel artificial intelligence techniques in the field of personalized care. Moreover, the collected information will yield valuable insights into the relationships between different variables and health outcomes, allowing researchers to generate and test new hypotheses, identify novel biomarkers and digital endpoints, and explore how different lifestyle, biological and digital factors impact health. The aim of this article is to describe the datasets included in AI4FoodDB and to outline the potential that they hold for precision health research. Database URL https://github.com/AI4Food/AI4FoodDB

1 April 2016 in Nutrition
Verified
Journal Article
Closed access
Viviana Loria-KohenViviana Loria-Kohen
Viviana Loria-Kohen
ISABEL ESPINOSA-SALINASISABEL ESPINOSA-SALINAS
ISABEL ESPINOSA-SALINAS
Helena Marcos PaseroHelena Marcos Pasero
Helena Marcos Pasero
TLThais Lourenço-Nogueira
Thais Lourenço-Nogueira
JHJesús Herranz
Jesús Herranz
AMAna Ramírez de Molina
Ana Ramírez de Molina

9 October 2023 in IEEE Access
Verified
Journal Article
Open access
SRSergio Romero-Tapiador
Sergio Romero-Tapiador
RTRuben Tolosana
Ruben Tolosana
AMAythami Morales
Aythami Morales
Julian FierrezJulian Fierrez
Julian Fierrez
RVRuben Vera-Rodriguez
Ruben Vera-Rodriguez
JOJavier Ortega-Garcia
Javier Ortega-Garcia
Leading a healthy lifestyle significantly reduces the risk of developing Non-Communicable Diseases (NCD). However, defining and monitoring healthy eating behaviour depends on multiple factors and usually requires the intervention of experts. On the other hand, nowadays millions of images are shared on social media and web platforms. In particular, many of them are food images taken from a smartphone over time, providing information related to the individual’s diet. Consequently, exploiting recent advances in image processing and Artificial Intelligence (AI), this scenario represents an excellent opportunity to: i) create new methods that analyse the individuals’ health from what they eat, and ii) develop personalised recommendations to improve nutrition and diet under specific circumstances (e.g., obesity or COVID). This article introduces the AI4Food-NutritionFW, a framework that facilitates the creation of food image datasets tailored to configurable eating behaviours. The framework considers various aspects such as region and lifestyle, simulating a user-friendly scenario where individuals capture food images using their smartphones. The study also presents a novel food image dataset comprising 4,800 diverse weekly diets from 15 distinct profiles, ranging from healthy eating habits to unhealthy ones. Finally, we evaluate the healthy eating behaviours through a score based on the Normalised Mahalanobis Distance (NMD), achieving promising results (99.53% and 99.60% accuracy and sensitivity, respectively).We also release to the research community a software implementation of our proposed AI4Food-NutritionFW a and the mentioned food image dataset created with it.

18 April 2024 in Multimedia Tools and Applications
Verified
Journal Article
Open access
PDF file
SRSergio Romero-Tapiador
Sergio Romero-Tapiador
RTRuben Tolosana
Ruben Tolosana
AMAythami Morales
Aythami Morales
Julian FierrezJulian Fierrez
Julian Fierrez
RVRuben Vera-Rodriguez
Ruben Vera-Rodriguez
JOJavier Ortega-Garcia
Javier Ortega-Garcia
Maintaining a healthy lifestyle has become increasingly challenging in today’s sedentary society marked by poor eating habits. To address this issue, both national and international organisations have made numerous efforts to promote healthier diets and increased physical activity. However, implementing these recommendations in daily life can be difficult, as they are often generic and not tailored to individuals. This study presents the AI4Food-NutritionDB database, the first nutrition database that incorporates food images and a nutrition taxonomy based on recommendations by national and international health authorities. The database offers a multi-level categorisation, comprising 6 nutritional levels, 19 main categories (e.g., “Meat”), 73 subcategories (e.g., “White Meat”), and 893 specific food products (e.g., “Chicken”). The AI4Food-NutritionDB opens the doors to new food computing approaches in terms of food intake frequency, quality, and categorisation. Also, we present a standardised experimental protocol and benchmark including three tasks based on the nutrition taxonomy (i.e., category, subcategory, and final product recognition). These resources are available to the research community, including our deep learning models trained on AI4Food-NutritionDB, which can serve as pre-trained models, achieving accurate recognition results for challenging food image databases. All these resources are available in GitHub (https://github.com/BiDAlab/AI4Food-NutritionDB).

1 October 2014 in Nutrition
Verified
Journal Article
Closed access
Viviana Loria-KohenViviana Loria-Kohen
Viviana Loria-Kohen
ISABEL ESPINOSA-SALINASISABEL ESPINOSA-SALINAS
ISABEL ESPINOSA-SALINAS
AMAna Ramírez de Molina
Ana Ramírez de Molina
PCPatricia Casas-Agustench
Patricia Casas-Agustench
JHJesús Herranz
Jesús Herranz
JOJosé M Ordovás
José M Ordovás