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The  future  of  Food  Engineering:  Educa4on  

P.  Pi%a,  C.  Silva,  D.  Knorr,  G.  Trystram  

!

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2  

EXISTING  EDUCATION  

PROGRAMMES  

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3  

Educa4on:  Food  related-­‐study  programmes  in  EU    

Bachelor  degree:  >  210  

Leading  countries  (n.):  DE,  ES,  IT,  PT  

Master  degree:  >  200  

Leading  countries  (n.):  IT,  PT,  UK,  DK,  BE,  F

 

PhD:  >  70  

 

Only  a  few  number  of  places  where  Food  

Engineering  is  developped  

ECCE  9  2013  Future  of  Food  Engineering  

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4  

(Track_fast  &  ISEKI_Food  collec5on  data,  2012)  

Educa4on:  Food  related-­‐study  programmes  in  EU    

• 

Bachelor  programmes:    

• 

  FST,  FS,  FT,  FE,  Biotech,  Vi4culture  &  Oenology,  

Processes  of    Animal  products,  Nutri4on  &  FS,  Process  

Eng  –  FT,  Engineer    Agronomist,…  

• 

 

Food  Innova4on  Management,  Food  Innova4on,  Food  

Service,  

 

Gastronimic  Sciences,  Food  &  Business….  

• 

Master  programmes:    

• 

  FS&T,  FS&Eng,    Industrial  Biotech,  Innova4ve  Enology,  

Food    microbiology,  Food  chemistry,  Life  science  

Technology,    Agrofoodchain  

• 

 

Food  enterprise  development,  Food  Business,…  

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5  

Defini4on  of  Food  Engineering  

from  EAFE  project,  2013  

• 

Food   Engineering   covers   the   study,   modeling   and  

design   of   ingredients   and   foods   at   all   scales   using  

technological  innova8ons  and  engineering  principles  

in   the   development,   manufacturing,   use   and  

understanding   of   exis8ng   and   emerging   food  

processes,   food   packaging   and   food   materials   from  

food   produc8on   to   diges8on   and   sa8a8on   enabling  

development  and  design,  produc8on,  and  availability  

of   sustainable,   safe,   nutri8ous,   healthy,   appealing  

and  affordable  supply  of  high  quality  ingredients  and  

foods.  

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Fundamental  

Details  

§  Characteristics of raw food material §  Understand the source and variability of raw

food material and their impact on food processing operations.

§  Principles of food preservation including low

and high temperatures, water activity, etc.

§  Know the spoilage and deterioration

mechanisms in foods and methods to control deterioration and spoilage.

§  Understand the principles that make a food

product safe for consumption.

§  Engineering principles including mass and

energy balances, thermodynamics, fluid flow, and heat and mass transfer

§  Understand the transport processes and unit operations in food processing as demonstrated both conceptually and in practical laboratory settings.

§  Be able to use the mass and energy balances for a given food process.

§  Understand the unit operations required to produce a given food product.

§  Principles of food processing techniques, such

as freeze drying, high pressure, aseptic processing, extrusion, etc.

§  Understand the principles and current practices of processing techniques and the effects of processing parameters on product quality.

§  Packaging materials and methods §  Understand the properties and uses of various

packaging materials.

§  Cleaning and sanitation §  Understand the basic principles and practices

of cleaning and sanitation in food processing operations.

§  Water and waste management §  Understand the requirements for water

utilization and waste management in food and food processing.

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7  

Fundamental  

Details  

§  Communication skills (i.e., oral and written

communication, listening, interviewing, etc.)

§  Demonstrate the use of oral and written

communication skills. This includes such skills as writing technical reports, letters and memos; communicating technical information to a

nontechnical audience; and making formal and informal presentations.

§  Critical thinking/problem solving skills (i.e.,

creativity, common sense, resourcefulness, scientific reasoning, analytical thinking, etc.)

§  Define a problem, identify potential causes and

possible solutions, and make thoughtful recommendations.

§  Apply critical thinking skills to new situations. §  Professionalism skills (i.e., ethics, integrity,

respect for diversity) § 

Commit to the highest standards of

professional integrity and ethical values. §  Work and/or interact with individuals from

diverse cultures.

§  Life-long learning skills §  Explain the skills necessary to continually

educate oneself. §  Interaction skills (i.e., teamwork, mentoring,

leadership, networking, interpersonal skills, etc.)

§  Work effectively with others.

§  Provide leadership in a variety of situations. §  Deal with individual and/or group conflict.

§  Information acquisition skills (i.e., written and

electronic searches, databases, Internet, etc.)

§  Independently research scientific and

nonscientific information.

§  Competently use library resources.

§  Organizational skills (i.e., time management, project management, etc.)

§  Manage time effectively. §  Facilitate group projects.

§  Handle multiple tasks and pressures.

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Example  of  one  Web  Site  Master  Food  Engineering  

• 

Effect   of   Food   Processing   on   BioacUve   Compounds   in   Foods,   Muscle   and   Meat  

Biochemistry,   Poultry   Meat   Technology,   Thermal   Processing   of   Foods,   New  

Developments  in  Fruit  and  Vegetable  Industry,  Water  in  Foods  and  Food  Industry,  

Spectroscopic   Methods   in   Food   Analysis,   Contaminants   in   Foods,   Chelates  

AnUmicrobials  and  AnUoxidants  in  Food  Industry,  Advanced  Heat  Transfer,  AsepUc  

Packaging,  Energy  in  Food  Processing,  Developments  in  Vegetable  Oil  Processing  

Techniques   and   Quality   Control   Methods,   Microbial   Polysaccharides,   Wine   and  

Spirit   Technology,   Numerical   Methods   for   Food   Process   OperaUons,   New   Dairy  

Product   Development,   Rheological   ProperUes   of   Foods,   Special   Topics   in   Food  

Chemistry,  Egg  and  Egg  Products  Technology,  Sensory  Test  Techniques,  Cold  and  

Frozen   Storage   of   Foods,   Special   Topics   in   Food   chemistry,   Drying   Techniques,  

Food   MarkeUng   Research,   InteracUons   of   Food   Components,   Quality   Assurance  

Principles   in   Food   Analysis   Laboratory,   Cheese   Defects   and   PrevenUon   Methods,  

Water   Treatment   Systems   in   Food   Industry,   Nanotechnology   ApplicaUons   in  

FuncUonal   Food   Science,   Deep-­‐fat   Frying   Process   and   OxidaUon,   Olive   Oil  

Chemistry   and   Technology,   Bioreactors   Used   in   the   Biotechnological   Processes,  

Food   Process   Analysis   And   Modeling,   Electrical   HeaUng   Methods   in   Food  

Engineering,   Pickles   and   Vinegar   Technology,   Technical   Problem   Solving   in   Food  

Industry,   Design   of   NutriUous   and   Healthy   Foods,   New   Developments   in   Food  

Packaging   Technologies,   Heat   Transfer   Technologies   of   Fruits   and   Vegetables,  

Food  Industry,  NutriUon  and  Health.    

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Other  input  in  Food  Engineering  

• 

ReacUon  Engineering,  kineUcs,  …  

• 

Biotechnology  

• 

Bio  Engineering  

• 

Microbiology,  enzyme  processing,  ..  

• 

Process  control,  PAT,  sensors,  automaUon,  roboUcs,  

…  

• 

Modelling  

• 

…  

• 

Management,  nutriUon,  sensory  evaluaUon,  ..  

appear  as  topics  

• 

LegislaUon,  Law,  reglementaUon,  ..  

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10  

NEW  CHALLENGES  AND  APPROACHES  

FOR  FOOD  ENGINEERING  EDUCATION  

IN  EUROPE  

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11  

Ercsey-­‐Ravasz  M,  Toroczkai  Z,  Lakner  Z,  Baranyi  J  (2012)  

Complexity  of  the  InternaUonal  Agro-­‐Food  Trade  Network  and  Its  Impact  on  Food  Safety.  PLoS  ONE  7(5):   e37810  

Exchanges  of  products,  raw  materials,  ..  

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12  

Iden4fied  future  stakes  for  Educa4on  in  Food  Enginee

ring  

• 

Challenges  for  the  food  industries  

– 

Food  security,  PopulaUon  Growth  

– 

Food  safety,  Changing  eaUng  behaviour  

– 

GlobalizaUon,  climate  change  

– 

Energy  cost  and  change  in  value  chain,  fossil  fuel  prices  

– 

Sustainability  and  other  emerging  challenges  

• 

Fundamental  change  in  economical  compeUUon:  acceleraUon  of  

technological  innovaUon,  increase  with  informaUon  exchanges,  

quick  evoluUon  of  consummaUon  centres,  urbanisaUon..  

• 

New  answers:  compeUUon,  intensive  innovaUon,  innovaUon  based  

compeUUon,  open  innovaUon,  …    

• 

New  theory  emerge  on  design  and  engineering  of  products  

• 

New  ways  of  cooperaUon's  between  companies  are  available  

• 

New  skills  are  necessary,  more  cross  disciplinary  approaches  are  

expected  

• 

New  students  with  new  ways  of  working  and  expectaUons  

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CHALLENGE  1:  DIVERSIFICATION  

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Industry  has  built  delayed  diversifica4on  for  food  

• 

The  industry,  by  seeking  efficiency  and  regularity,  shijed  

diversificaUon  to  downstream  

– 

Gradual  reduc4on  of  the  diversity  of  raw  materials  (variety,  

culture,  ..)  

– 

Control  the  variability  of  ingredients  and  addi4ves  

• 

A  food  industry  built  in  2  or  3  steps  

Raw  material  

End  product  

Process  

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15  

Industry  has  built  delayed  diversifica4on  for  food  

ECCE  9  2013  Future  of  Food  Engineering  

0 50 10 0 15 0 20 0 25 0

Energie Protéines Glucides Sucres Amidon Lipides AGS Fibres Sodium

Biscuits chocolatés sandwichés

Data from OQALI project

(16)

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CHALLENGE  2:  EXPECTED  SKILLS  

FROM  COMPANIES  

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17  

Training  Requirements  And  Careers  for  

Knowledge-­‐based  Food  Science  and  Technology  

in  Europe  

 

TRACK_FAST  

FP7  KBBE  227220  

TRYSTRAM  AgroParisTech  

Project  Coordinator  

Prof.    Cris4na  L.  Silva  

Escola  Superior  de  Biotecnologia   Universidade  Católica  Portuguesa   Porto  Portugal  

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18  

ECCE  9  2013  Future  of  Food  Engineering  

(19)

19  

“Life  cycle”  of  a  Food  Professional  

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20  

ECCE  9  2013  Future  of  Food  Engineering  

Which  competences  ?  

Where,  when,  how,  how  

ojen?  

 

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21  

CHALLENGE  3:  WHAT  IS  

SUSTAINABILITY  ?  

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22  

Drivers  behind  the  crea4on  of  variety  in  supply  

In  compliance  with  regulaUons  

No  percepUon  of  chemical  

"taste"  

Less  sugar,  salt,  fat  

IntroducUon  of  fibre,  ..  

AddiUon  of  specific  nutrient  

AddiUon  of  bioacUve  

compounds,  specific  funcUons  

No  or  few  ingredients  and  

addiUves  

Se

ns

or

ial

 

Bas

ic

 n

utr

iU

on

 

D

ie

t  w

ith

 h

eal

th

 b

en

efi

ts  

Ni

ch

es

 

Sustainability?

 

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23  

Food  process  concep4on  and  sustainability  

Over  Ume,  gradual  integraUon  of  mulUple  constraints  (cost,  

microbiological  safety,  sensory  aspects,  chemical  safety,  nutriUonal  

value...  and  environmental  constraints)  

 

Will  it  be  possible  to  comply  with  the  

constraints  of  sustainability

 

without  having  to  go  back  on  some  of  the  constraints  previously  

integrated?  

 

Is  it  possible  to  respond  by  opUmising  exisUng  technologies,  or  is  it  

necessary  to  fundamentally  redesign  food  processing  methods,  the  

relaUonship  between  agriculture  and  industry,  and  the  organisaUon  of  

food  chains?    

Food  systems:  major  ques4ons    

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24  

Sustainability  is  it  really  a  food  limited  ques4on?  

ECCE  9  2013  Future  of  Food  Engineering  

Transformation of the Ressource

Pure molecule

Pharmacy

Active biomolecules

Cosmetics

Biomolecules

Chemistry

Tensioactives

Chemistry

Biosolvents - Biolubricants

Ressource volume

Valorisation (price/ha)

Food

Biofuels

2nd generation

Plastics

Biodegradable plastic

Actual biofuels

Building

Incorporation Agro-matériaux

Plastics

Incorporating Agro-materials

biofuels

Organic soil

Textile

Horticulture

Feeding

animals

Complexity  

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25  

Simple  

foods  

Pure molecules

Functions

Elaborated

food

Agricultural and marine ressources Feeding animals

Chemistry

Biosolvants Biolubricants

Chemsitry

Biofuels

2

nd

generation

Plastics

biodegradable plastic

Actual biofuels

Plastics

BTP  

Biofuels

Horticulture

Cosmetics

Biomolecules

Complexity  

Pharmacy

Active biomolecules 25   ECCE  9  2013  Future  of  Food  Engineering  

IFP

Ingredients

Elaborated

products

Simple foods

Processing  

Fo

rm

ula

4o

n  

As

se

m

bly

 

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26  

CHALLENGE  4:  MORE  COMPLEX  

OBJECTIVES    

(27)

27   Brain   Mouth   GI  track   Human  body   Raw    

materials   FracUonnement   FormulaUon   ConservaUon   Use  

Deconstruc4on  

of  Food  

Food  

Engineering  

Design   TransformaUon   Assembling  

Food  Engineering  in  a  more  complexe  objec4ve  

(28)

28   Need   Acceptance  

FOOD  

PRO

PE

RT

IE

S  

Empirical   relaUons   Pro ces s   str uc tu re   funcUons  

SAFETY  

NutriUon   EaU ng     Be hav io r  

N

U

TRIT

IO

N

 

EaUng     habits   Im m un ol og y   N utr ie nts   Pr ote cU ve   bar rie r  

Food  Engineering  in  a  more  complexe  objec4ve  

ECCE  9  2013  Future  of  Food  Engineering  

(29)

29  

EXAMPLES  OF  EDUCATION  

INNOVATIVE  APPROACHES  

(30)

30  

To  promote  new  educa4on  ways  

• 

EducaUon  by  doing:  

– 

InnovaUon  hubs  

– 

Living  labs  

– 

Projects  with  companies  

• 

CompeUUon  in  order  to  foster  innovaUon  

– 

Students  contest  (Ecotrophelia,  …)  

– 

Awards  (EFCE  PhD,  …)  

• 

Highly  qualified  young  European  scienUsts  who  will  

finish  their  PhD  in  Food  Engineering  and  Technology  

soon  or  have  recently  received  a  PhD  are  invited  to  

present  their  work.  The  candidates  should  be  less  than  

35  years  old.  

• 

CollaboraUon  with  others  

– 

Create  new  cross-­‐disciplinary  content  

– 

Network  of  projects  across  Europe  

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31  

SOME  COMMENTS  FOR  A  

CONCLUSION  

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32  

Main  training  and  educa4onal  goals  of  HE  ins4tu4ons  

• 

To  be  able  to  introduce  in  courses  and  programs  entrepreneurships  and  

innovaUon  dedicated  content  

• 

To  promote  new  teaching  methods  and  pedagogy  

– 

New  generaUon  of  students    

-­‐  Internet-­‐social  network  

-­‐  Web  2.0  generaUon    

-­‐  Lower  financial  support  to  HE  

-­‐  Resistance  to  changes

 

• 

To  boost  industry’s  par4cipa4on  in  EducaUon  

• 

To  Develop  a  quality  framework  in  educa4on:  Quality  standards  

(cerUficaUon,  label)  

• 

New  skills  for  new  jobs:  To  be  aware  of  the  skills  that  industries  expect  

from  our  graduates  and  follow  how  they  evolve  over  Ume.  

• 

To  MoUvate  and  accompany  young  students  interested  by  a  career  in  the  

food  industry  because  of  

lower  importance  of  Food  Science  and  

Technology  studies/curricula  and  Compe44on  from  other  scien4fic  fields

 

 

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33  

IFOOD  4  -­‐  Main  objec4ves  and  expected  outcomes  

-­‐  

Modernising  and  upgrading  the  educa8on  and  training  of  Food  studies  

-­‐   Implemen5ng  the  labour  market  role  of  the  third  level  of  educa5on  

(PhD  programmes,  in  par8cular)  in  promo8ng  the  employability  and  

entrepreneurship  of  the  graduated  FS&T  and  Food  professional  

-­‐   Lecturing  qualifica5on  of  university  teaching  staff  

Toolbox  for  modernisa4on  and  interna4onalisa4on  

of  curricula  in  Food  studies    

Innova4ve  teaching  tools    

Virtual  plaoorm  for  PhD  students  networking  and  training  

Teaching  staff  framework  and  pilot  summer  school  

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34  

Thank  you  for  arenUon  

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