EPN-V2

ACIT4035 Rehabilitation and Assistive Technology Course description

Course name in Norwegian
Rehabilitation and Assistive Technology
Study programme
Master's Programme in Applied Computer and Information Technology
Master's Programme in Applied Computer and Information Technology, Elective modules
Weight
10.0 ECTS
Year of study
2023/2024
Curriculum
FALL 2023
Schedule
Course history

Introduction

From prosthetic limbs, exoskeletons, orthotics, hearing aids, and muscle-controlled mobility solutions to artificial organs and cognitive aids, the modern era of rehabilitation and assistive devices has created a paradigm shift in what technology can achieve to help people who need it. A fundamental understanding of principles, challenges, and approaches in designing, operating, and secure use of state-of-the-art rehabilitation and assistive devices is essential to adapt and create suitable solutions. This course provides a hands-on experience in applying novel concepts and methods used by electronic and mechanical devices for rehabilitation and assistive living technologies.

Recommended preliminary courses

Forelesninger, øvinger og prosjektarbeid.

Required preliminary courses

No formal requirements over and above the admission requirements.

Learning outcomes

Learning outcomes

After completing this course, the student will have the following learning outcomes, defined as knowledge, skills, and general competence:

Knowledge

The student:

  • has specialised knowledge of devices and approaches used in physical rehabilitation, their purpose and functions.
  • has advanced understanding of the concepts and methods used by electronic and mechanical devices for rehabilitation and assistive living technologies.
  • has an advanced technical understanding of a range of sensors and actuators used in medical rehabilitation and assistive devices, including but not limited to physical, mechanical, electronic and optical.
  • can explain and exploit the transduction mechanisms and sensory schemes in relation to rehabilitation of physical activities.
  • has advanced practical knowledge of specific rehabilitation and assistive device related to a practical developmental project.

Skills

The student:

  • can plan the design, construction and validation of a specific electronic or electromechanical device for rehabilitation and assistive living technologies.
  • can critically assess the suitability of different theories, concepts, methods, and techniques for a specific rehabilitation or assistive device.
  • can apply novel theories and approaches to solve the task related to rehabilitation and assistive devices. The students will closely work with rehabilitation hospital and will be presented with practical rehabilitation challenge that they will have to solve.
  • can design, implement or improve specific device for rehabilitation or assistive living.
  • can analyse and document the performance of the developed system and benchmark it with other methods.

General competence

The student:

  • can explain the purpose and principle of operation of typical rehabilitation or assistive devices.
  • can explain and discus challenges related to rehabilitation and assistive devices to experts and non-experts alike.
  • can analyze, present, develop and test possible novel solutions for rehabilitation or assistive device, focusing on electronic and mechanical solutions.

Content

Følgende arbeidskrav må være godkjent for å kunne fremstille seg til eksamen:

  • To individuelle øvinger, hver på tre til fem sider.

Teaching and learning methods

This course will feature weekly lectures and practical work to provide theoretical and hands-on experience. The student will supplement the lectures and practical work with their own reading. The project work will be carried out in groups of a size suited for the chosen rehabilitation or assistive device.

Course requirements

The following required coursework must be approved before the student can take the exam:

  • Preliminary project plan and product design (max 1000 words).

Assessment

Exam in two parts:

  1. Group project report (max 5000 words). The project report counts 80% of the final grade.
  2. Individual project presentation of student's contribution to the project (10 minutes). The oral examination counts 20% of the final grade

Both exams must be passed in order to pass the course.

The oral examination cannot be appealed.

New/postponed exam

In case of failed exam or legal absence, the student may apply for a new or postponed exam. New or postponed exams are offered within a reasonable period following the regular exam. The student is responsible for registering for a new/postponed exam within the time limits set by OsloMet. The Regulations for new or postponed examinations are available in Regulations relating to studies and examinations at OsloMet.

Permitted exam materials and equipment

All aids are permitted

Grading scale

Foruten grunnleggende kunnskap og teori, gir emnet studentene nødvendige ferdigheter og erfaring med å prosjektere varmesystemer i bygninger. Emnet bygger på emner fra først semester i første studieår i masterstudiet.

Examiners

Ingen ut over opptakskrav.

Course contact person

Etter å ha gjennomført dette emnet har studenten følgende læringsutbytte, som definert i kunnskap, ferdigheter og generell kompetanse:

Kunnskap

Studenten har inngående kunnskap om

  • produksjon av energi, bruk av energi og design av varmeforsyningssystemer
  • kjeler, kjelkoblinger, varmepumper, solvarme, fjernvarme, gass med mer for konvertering og overføring av energi
  • lover og regler, energidirektiv og energimerking
  • forbrenningsanlegg (bioenergi, kull, olje, gass) og forbrenningsprosesser
  • fjernvarmeanlegg; produksjon, distribusjon og abonnentsentraler
  • dampsystemer; temperatur, trykk, materialer og systemoppbygning
  • varmelegemer; radiatorer, aerotempere med mer
  • vannbårne anlegg, herunder ekspansjonssystemer, trykkforhold, sikkerhetsinnretninger
  • analysere lønnsomhet, tariffer, driftstid, investeringer, energipriser

Ferdigheter

Studenten kan

  • gjennomføre varmebehovsberegninger
  • vurdere energibehov for bygning relatert til ytre klima med hensyn til uteklimaet, energibevisst arkitektur, varmetransport, varmeisolering, lufttetthet og infiltrasjonstap, internt varmetilskudd og solenergi
  • vurdere bygningers effekt og energimønster; belastningsmålinger, typisk energiforbruksmønster
  • beregne og vurdere riktig regulerings- og styringssystemer
  • analysere anlegg mht. energibruk, økonomi og miljøbelastning
  • vise hvordan tradisjonelle energiformer utnyttes, og de belastninger bruk av slike energikilder fører til for miljøet
  • designe oppvarmingsanlegg; beregne oppvarmingssystemer og energiproduksjonsanlegg; oppvarmingssystemer, kjøleanlegg til luftkondisjonering og varmepumper, ventilasjonssystemer, varmtvannsforsyning og komponenter
  • innregulere vannbårne anlegg
  • dimensjonere rørnett for vannbåren energi

Generell kompetanse

Studenten kan

  • beregne, designe og konstruere varmeproduserende anlegg, distribusjonsanlegg og oppvarmingsanlegg slik at miljøet ikke blir belastet unødvendig
  • kan formulere og analysere problemstillinger ved bruk av vitenskapelige metoder i prosjektarbeid