Designing Foods: Obtaining Functionalities by Organizing Structures. An example. Conference “Technology as a mediator of foods functionality” Bologna,

Slides:



Advertisements
Similar presentations
Selecting a Methodology for BPR
Advertisements

Thermal Preservation.
Some Interesting Facts about Mechanical Engineering
Careernextmove.com Career in Engineering Brief Overview.
© 2007 Institute of Food Technologists Food Processing and Preservation 101 Speaker Name Speaker Title Date (optional) Speaker Name Speaker Title Date.
Exposure model for risk assessment and registration of amateur products in France 2013 Conference on Safe and Sustainable Use of Pesticides Bratislava–
Energy efficient use of low temperature excess heat in industry Tiina Järvinen Aalto University School of Engineering Department of Energy Technology
Part III Solid Waste Engineering
NUMERICAL DUAL-POROSITY MODEL OF SOLID-LIQUID EXPRESSION FROM ELECTROPORATED BIO-SOLIDS Samo MAHNIČ-KALAMIZA, Eugène VOROBIEV Université de Technologie.
Engineering Disciplines © 2012 Project Lead The Way, Inc.Introduction to Engineering Design.
The FRAME Routine Key Topic is about…
Description of the enzymatic browning in avocado slice using GLCM image texture Stefany Cárdenas, Roberto Quevedo*, Emir Valencia and José Miguel Bastías.
BIO TECHNOLOGY 10th Grade - Biology. BIOTECHNOLOGY Land, Air, Water & Minerals Definition : The application of technology utilizing the characteristics.
Improvement of antioxidant activity in food by impregnation
Preservation of Seafoods FSN 261 Spring 2011 Chuck Crapo Seafood Technology Specialist 1.
Understanding Food Chapter 7: Food Preservation. Food Spoilage Biological Changes Yeast: A fungus (a plant that lacks chlorophyll) that is able to ferment.
Engineering Properties Dr. Muanmai Apintanapong. Rationale: In handling, processing, storage, and distribution of foods at various stages, engineering.
Water Unit By Luanne LaRose and Kate Stanton Virtual Molecular Dynamics Laboratory Boston University Summer 2002.
Strength of Concrete.
REFRIGERATION & AIR-CONDITIONING Prepared by SREEJITH K. SREEJITH K. APME APME JECC JECC.
1 Dehydrated Mango Products Next. 2 Dehydration means the process of removal of moisture by the application of artificial heat under controlled conditions.
Number of unit : 3 Course type : Core Prerequisite: None.
Effect of Osmotic Dehydration Parameters on Papain Enzyme Activity of Carica papaya L. Nurul Asyikin Zaki*, Rosmaria Abu Darim, Liza Md Salleh, Ida Idayu.
Module 5.
Vital Connections - Engineering What are the general characteristics of an engineer? What are the general characteristics of an engineer? What do engineers.
Course Name : Material Science
Lab. of Food & Biomaterial Chemistry Lee Si Yeon
Engineering Disciplines
 Basic Definition:  Basic Definition: Technology of building or creating products such as electronic circuits from single atoms and molecules Deals.
“Development of an advanced, innovative energy autonomous system for the treatment of brine produced from desalination plants” LIFE09 ENV/GR/ “ Water.
Sociedade Portuguesa de Inovação Beijing, December 2004 Document B TECHNICAL UNIVERSITY OF VALENCIA (UPV), SPAIN Valencia.
Funding: Partial support for this work was provided by the National Science Foundation's ADVANCE IT Program under Award HRD Any opinions, findings,
 Definition ◦ Scale up studies refers to the act of using results obtained from laboratory studies for designing a prototype and a pilot plant process;
Preparation of dehydrated tomato products Next. Drying is the oldest known method of preserving food. Dehydration is the process of slowly removing water.
Rosa S. Rolle, Ph.D Senior Agro-Industries and Post-harvest Officer
REVIEW ON PROJECT WORK Measurement… Prof. Andras Fekete Department of Physics and Control Corvinus University of Budapest.
9 th Workshop on European Collaboration for Higher Education and Research in Nuclear Engineering & Radiological Protection Salamanca, Spain 5-7 June 2013.
Kristin McElroy My Career Project How to become a Material Engineer.
Food Science and Industry
Application of Evaporators in Fruit and Vegetable Processing Submitted to: Submitted By: Preeti Birwal Dr. Rekha Menon PhD (DE) NDRI.
Malaria Control & Elimination Dr. Sandro Percario Editorial Board Member Professor Ph.D., Federal University of Para, Brazil Guest Researcher US Centers.
University of Kurdistan Food Quality Evaluation Methods (FQEM) Lecturer: Kaveh Mollazade, Ph.D. Department of Biosystems Engineering, Faculty of Agriculture,
Engineering Disciplines
Engineering Disciplines Get out your notes:. Learning Objectives Be able to describe several different engineering fields –General Description –Specific.
Summary of first part FST 3301 – Principles of Processing and Preservation.
Chapter 1: The Nature of Analytical Chemistry
Lesson 1 Understanding World Agricultural Production.
Foods – dynamic systems Structure variation –Storage –Distribution –Preparation Factors –Composition –Acidity –Internal pressures –Interacting phases –Environmental.
WHAT: HOW: WHY: • To learn the new requirements of your GCSE course
Environment Infoday FP7-ENV-2011 July 13, 2009
Ch 15 DNA Technology/ Genetic Engineering
Topic Dehydration of fruits and vegetables
Engineering Disciplines
Vital Connections - Engineering
E-MAP CHAMBER PROJECT Engineering Math Advancement Program SUMMER 2006
Matter and Chemical Change
NUMERICAL DUAL-POROSITY MODEL OF SOLID-LIQUID EXPRESSION FROM ELECTROPORATED BIO-SOLIDS Samo MAHNIČ-KALAMIZA, Eugène VOROBIEV Université de Technologie.
Engineering Disciplines
Accepted Students Program
Engineering Disciplines
Engineering Disciplines
MATTER Unit 12 Part 1.
Engineering Disciplines
Engineering Disciplines
WB Steering Platform for Research and Innovation
Food and Microbes Test 6 Notes.
Energy – Physical Changes
Engineering Disciplines
FDE 101-Basic Concepts in Food Engineering
FDE 101-Basic Concepts in Food Engineering
Presentation transcript:

Designing Foods: Obtaining Functionalities by Organizing Structures. An example. Conference “Technology as a mediator of foods functionality” Bologna, Italy, September2014 Pedro Fito & Noelia Betoret

(FP) 1 = f(FS) 1 (FP) n = f(FS) n Food Structure, Properties & Process Relationships (S-P-P)r Food Process (n steps) Structure Properties Relationships

“Technology as a mediator of foods functionality. Edible Packaging for developing “Ready to eat” Natural Functional Foods. A new technology” by Prof. Pedro Fito, Emeritus Professor of Food Engineering. Polytechnic University of Valencia (Spain) Bologna, Italy, September2014 Abstract In the present work the technology used to modify the structure de fruits (apples) by introducing functional juice in their intercellular spaces was the vacuum impregnation. This technology, together with the osmotic dehydration, was proposed by our research group in 1994 and has been widely used in the last 20 years. In this presentation we show the steps followed in our laboratory and pilot plant to produce two dry functional fruit products from apple rings, vacuum impregnated with functional juices obtained from mandarins or from blueberries. The humid impregnated apples were dried and packed. Their functionality was assessed both, with chemical analysis and by biological tests. The final results of this research confirm the possibility to design new foods with specific functionalities reorganizing their structures, with the use of techniques as the Vacuum Impregnation, Vacuum Osmotic Dehydration or others. The porosity of these structures became full of functional liquid. The new technology may be defined as “Edible packaging for developing “Ready to eat” Natural Functional Foods” Bologna, September 2014

“Technology as a mediator of foods functionality” Bologna, Italy, September2014 Designing Foods: Obtaining Functionalities by Organizing Structures. Vacuum Osmotic Dehydration. The key tech. Edible Packaging for developing “Ready to eat” Functional Foods. A new process. Pedro Fito & Noelia Betoret

“Technology as a mediator of foods functionality. Edible Packaging for developing “Ready to eat” Natural Functional Foods. A new technology” by Prof. Pedro Fito, Emeritus Professor of Food Engineering. Polytechnic University of Valencia (Spain) Bologna, Italy, September2014 Abstract In the present work the technology used to modify the structure de fruits (apples) by introducing functional juice in their intercellular spaces was the vacuum impregnation. This technology, together with the osmotic dehydration, was proposed by our research group in 1994 and has been widely used in the last 20 years. In this presentation we show the steps followed in our laboratory and pilot plant to produce two dry functional fruit products from apple rings, vacuum impregnated with functional juices obtained from mandarins or from blueberries. The humid impregnated apples were dried and packed. Their functionality was assessed both, with chemical analysis and by biological tests. The final results of this research confirm the possibility to design new foods with specific functionalities reorganizing their structures, with the use of techniques as the Vacuum Impregnation, Vacuum Osmotic Dehydration or others. The porosity of these structures became full of functional liquid. The new technology may be defined as “Edible packaging for developing “Ready to eat” Natural Functional Foods” Bologna, September 2014

Developing a “family of new designed foods” In the present work the technology used to modify the structure de fruits (apples) by introducing functional juice in their intercellular spaces was the vacuum impregnation. This technology, together with the osmotic dehydration, was proposed by our research group in 1994 an has been widely used in the last 20 years. In this presentation we show the steps followed in our laboratory and pilot plant to produce two dry functional fruit products from apple rings vacuum impregnated with functional juices obtained from mandarins or from blueberries. The humid impregnated apples were dried and packed. Their functionality was assessed both with chemical analysis and by biological tests. Pedro Fito & Noelia Betoret

Journal of Food Engineering Editors´ Selection (Nov. 2011) EDITORIAL: Evolution of food engineering during the past four decades. R. Paul Singh -During the last 40 years food engineering has evolved in a vibrant and strong discipline… -”These papers represent topics that were at early stages of investigation at the time they were published, but they formed the basis for numerous follow-up studies by researchers around the world´”… 1.Implication of glass transition for the drying and stability of dried foods. B.R. Bhandari & T. Howes Modelling of Vacuum Osmotic Dehydration of Foods. Pedro Fito Engineering Aspects of Pulsed Electric Field Pasteurization. Dinghua Zhang, Gustavo Barbosa-Cánovas & Barry G. Swanson Improving quality inspection of food products by computer vision. A review. Tahd Brusnan & Da-Wen Sun The electromagnetic Properties of Food Materials: A review of the basic principles. S. Ryynanen Plasticizer effect on mechanical properties of β-lactoglobulin films. Rugsinee Sothornvit & John M. Krochta Why food microstructure? José Miguel Aguilera Supercritical fluids: technology and application to food processing. Gerd Brunner 2005

Fresh tissue Dried tissue (70 ºC, 2 h) IS ew IS IS: Intercellular space ew: evaporated water Dehydration and Structure Changes

EP4FF Edible Packaging for developing “Ready to eat” Natural Functional Foods. A new technology. 1.- Introduction. 2.- Advanced Food Process Engineering: Industrial & Biological Food Processes in the Food Chain. 3.- Vacuum Impregnation. A porous food may be a good package to improve or preserve functional properties of liquid foods! 4.- Solid Porous Food preparation 5.- Impregnation liquid properties. Previous treatments 6.- Properties of Humid Impregnated Food. How to preserve? 7.- Drying or Freeze Drying? Final products. 8.- Functional properties assessment in the final product. Some examples. 9.- Probiotics & Other Microorganisms Physical and Chemical Properties of the new foods. Texture and deformations Biological Properties of the new foods. Medical test.

Developing a “family of new designed foods” joining the following characteristics: Fruit consumption Functional properties Attractive for the ”young people” Facilities to be commercialized The two developed products 1.- Apple-Mandarin ensemble 2.- Apple-Blueberry ensemble

Developing a “family of new designed foods” Technologies, Equipment & Development Apple rings preparation Impregnation Juice preparation Vacuum Impregnation Dehydration Freeze Drying/Air Drying Packaging Storage Functionality assessment – 1.- In vitro – 2.- In vivo

Helicobacter pylori is an etiologic agent of chronic gastritis and gastroduodenal ulcer and it constitutes a risk of gastric linphoma or adenocarcinoma, increasing the risk when the infection persists. gastroduodenal ulcer carcinogenic agent type 1 by IARC (International Agency for Research on Cancer) in 1994 one of the most interest microorganisms for human pathology (Hunt et al., 1998)

Thanks for your attention!

Documentos y Publicaciones 2 PhD. Thesis from: Ester Betoret (Dir. N. Betoret y P. Fito) Juan Manuel Castagnini (Dir. N. Betoret y P. Fito) Apuntes de Ingeniería de Alimentos (P. Fito) Advanced Food Process Engineering: Industrial & Biological Food Processes in the Food Chain (P. Fito & N. Betoret Designing Foods: Obtaining Functionalities by Organizing Structures. (N. Betoret y P. Fito) Conference “Technology as a mediator of foods functionality” Bologna, Italy, September2014

Amount of Free Energy (G) used in sample structure deformations and breakages during drying. Figure 5. Evolution of the free energy to generate structural deformation/breakages efforts versus time.