Skip to main content
nounstudy
SED313

"Improvisation In Integrated Science "

  • Education
  • 300 level
  • 2 credit units
  • 85 pages
  • 15 units

This course introduces the principles and philosophy of improvisation in integrated science teaching. It explores sourcing teaching materials from immediate and distant environments, emphasizing the utilization and selection of improvised resources. The course covers improvisable experiments in the integrated science curriculum, including physics, chemistry, biology, mathematics, and geography aspects. Students will learn to develop improvised apparatus and understand their advantages and limitations.

About this course

Difficulty
Intermediate
Study hours
78 hours
Maths
Basic
Content
Theoretical, practical, problem solving
Practical work
Yes
How it is assessed
  • Assignments
  • Tutor marked assessments
  • Final examination

One paragraph, so you can see how it reads

SED313 · UNIT 2: SOURCING A CATALOGUE OF SCIENCE TEACHING MATERIALS IN IMMEDIATE ENVIRONMENT

The teacher should direct every stage, arousing the learners’ interest and maintaining their attention. Learners should not be carried away at any stage whether or not they are directly involved in manipulation of the material(s). The whole lesson should be guided by the objectives.

What you should be able to do

  1. Explain the meaning and philosophy of improvisation in integrated science teaching.
  2. Source teaching materials from immediate and distant environments.
  3. Utilize and select improvised materials effectively.
  4. Perform improvisable experiments in the integrated science curriculum.
  5. Develop improvised apparatus for various science disciplines.
  6. Understand the advantages and limitations of improvisation.

What it prepares you for

Careers
  • Science Teacher
  • Science Educator
  • Curriculum Developer
  • Educational Consultant
  • Laboratory Technician
Where it is applied
  • Education
  • Science Outreach
  • Curriculum Development
  • Educational Research

Where it gets hard

The units students slow down on, and what makes each one heavy.

  • Module 2: Improvisable Experiment in the Integrated Science Curriculum

    Unit 2: Use of Local Fruits in Teaching Acids and Bases

    Requires understanding of acid-base chemistry and indicator properties, which may be challenging for students without a strong chemistry background.

  • Module 3: Development of Improvised Apparatus in Integrated Science

    Unit 3: Developing of Apparatus for Physics Aspects of Integrated Science

    Requires understanding of electromagnetism and energy conversion, which may be challenging for students without a strong physics background.

A suggested way through it

Suggested

13 weeks, about 38 hours in total. Yours will differ.

  1. Week 1Module 1: General Principles and Philosophy of Improvisation in Integrated Science Teaching
    • Unit 1: Meaning and Philosophy of Improvisation in Integrated Science · 2 hours

      Read the unit introduction to understand the importance of improvisation in science teaching.. Define improvisation and explain its significance in overcoming resource limitations.. Discuss the principles of improvisation, including preparation, learner involvement, and presentation stages.. Explore the philosophical basis of improvisation, focusing on perception, understanding, and skill development..

  2. Week 2Module 1: General Principles and Philosophy of Improvisation in Integrated Science Teaching
    • Unit 2: Sourcing for a Catalogue of Science Teaching Materials in the Immediate Environment · 2 hours

      Define science teaching materials and categorize them into human and non-human resources.. Identify sources of teaching materials in the immediate environment, such as schools, communities, and workshops.. Create a catalogue of locally available materials and their potential uses in science teaching.. Discuss the importance of involving students in sourcing and improvising materials to foster creativity..

  3. Week 3Module 1: General Principles and Philosophy of Improvisation in Integrated Science Teaching
    • Unit 3: Sourcing for a Catalogue of Science Teaching Materials in the Distant Environment · 2 hours

      Explore distant environments as sources of science teaching materials, including industries, zoos, and educational centers.. Identify specific materials and their locations, such as fire extinguishers, ceramic products, and scientific instruments.. Discuss the importance of planning and arranging visits to distant locations for resource collection.. Consider the safety and logistical aspects of sourcing materials from outside the immediate environment..

  4. Week 4Module 1: General Principles and Philosophy of Improvisation in Integrated Science Teaching
    • Unit 4: Utilisation of Instructional Materials in Integrated Science Teaching · 2 hours

      Define utilization and its importance in achieving learning goals.. Explain the science process skills involved in utilizing instructional materials, such as observation, data collection, and analysis.. Discuss the roles of human and physical resources in the utilization process.. Incorporate science process skills into your teaching methodologies..

  5. Week 5Module 1: General Principles and Philosophy of Improvisation in Integrated Science Teaching
    • Unit 5: Selection and Utilisation of Improvised Materials · 2 hours

      Identify principles guiding the selection and use of improvised materials, including student characteristics and lesson objectives.. Discuss the advantages of improvisation, such as increased learning rates and student involvement.. Recognize the limitations of improvised materials, including teaching and financial challenges.. Develop strategies for overcoming these limitations to ensure effective utilization of improvised resources..

  6. Week 6Module 2: Improvisable Experiment in the Integrated Science Curriculum
    • Unit 1: Improvised Plane Mirror Experiment · 2 hours

      Define improvisable experiments and their role in science education.. Demonstrate how to verify the characteristics of images formed by a plane mirror using improvised materials.. Investigate the laws of reflection using straight pins and a drawing board.. Analyze the results and compare them with standard experimental outcomes..

  7. Week 7Module 2: Improvisable Experiment in the Integrated Science Curriculum
    • Unit 2: Use of Local Fruits in Teaching Acids and Bases · 2 hours

      Extract acids and bases from local fruits and materials, such as lime, milk, and tomatoes.. Produce citric acid, lactic acid, ascorbic acid, calcium hydroxide, and potassium hydroxide.. Use local fruits to teach acids and bases, employing red cabbage extract as an indicator.. Perform the 'turning water into wine' experiment to demonstrate pH changes..

  8. Week 8Module 2: Improvisable Experiment in the Integrated Science Curriculum
    • Unit 3: Egg in the Bottle Experiment (Demonstration) on Pressure · 2 hours

      Demonstrate the egg in the bottle experiment to illustrate air pressure concepts.. Explain the scientific principles behind the experiment, including the effects of temperature and pressure changes.. Discuss the factors affecting air pressure and their implications in real-world scenarios.. Analyze the results and relate them to atmospheric phenomena..

  9. Week 9Module 2: Improvisable Experiment in the Integrated Science Curriculum
    • Unit 4: Mathematics Experiment to Determine the Value of Constant Pie · 2 hours

      Determine the value of pi (π) using available resources, such as tin cans and measuring tools.. Measure the circumference and diameter of different-sized tins and calculate the ratio.. Analyze the results and conclude that the ratio of circumference to diameter is constant.. Apply the value of pi in calculating the area and volume of circles and spheres..

    • Unit 5: Fish Pond and Aquarium – Lesson on Fish · 2 hours

      Construct a glass fish pond using cellophane bags and empty cartons.. Construct an aquarium using cardboard boxes and plastic sheets.. Describe the construction process and identify the differences between fish ponds and aquariums.. Use these improvised setups to teach lessons on fish, their features, and their movement..

  10. Week 10Module 3: Development of Improvised Apparatus in Integrated Science
    • Unit 1: Development of Apparatus for Biology Aspect of Integrated Science · 2 hours

      Construct a model of a lung using local resources, such as plastic bottles, balloons, and tubing.. Explain how the lung works, including the process of gas exchange and breathing.. Demonstrate the lung model to illustrate the mechanics of respiration.. Discuss the importance of the respiratory system and its functions..

    • Unit 2: Developing of Apparatus for Chemistry Aspect of Integrated Science · 2 hours

      Identify local materials required for the construction of a thermometer, such as plastic bottles, straws, and food coloring.. Construct a thermometer using these materials and demonstrate its functionality.. Explain the principles of temperature measurement and the limitations of the improvised thermometer.. Discuss the applications of thermometers in everyday life and scientific experiments..

  11. Week 11Module 3: Development of Improvised Apparatus in Integrated Science
    • Unit 3: Developing of Apparatus for Physics Aspects of Integrated Science · 2 hours

      Identify materials needed for the construction of an electric motor, such as sewing needles, batteries, and magnets.. Construct a simple electric motor using local materials.. Explain the principles of electromagnetism and energy conversion.. Demonstrate the electric motor and discuss its applications in various devices..

    • Unit 4: Developing of Apparatus for Mathematics Aspect of Integrated Science · 2 hours

      Construct a square column paper abacus and describe its use in teaching number values.. Explain the place value system and how the abacus represents numbers.. Demonstrate the use of the paper abacus in performing basic arithmetic operations.. Discuss the advantages of using paper abacus over other forms..

  12. Week 12Module 3: Development of Improvised Apparatus in Integrated Science
    • Unit 5: Developing of Aspects of Integrated Science · 2 hours

      Identify local materials that can be used to improvise a rain gauge, such as plastic bottles, knives, and tape.. Improvise a simple rain gauge and describe its construction process.. Explain how to measure rainfall using the improvised gauge.. Discuss the importance of rain gauges in weather observation and data collection..

    • Unit 6: Developing of Apparatus for Geography Aspect of Integrated Science · 2 hours

      Build your own microscope using clear tape, pencils, and a pipette.. Explain how the improvised microscope works and its limitations.. Observe small objects and microscope slides using the improvised microscope.. Discuss the principles of magnification and refraction..

  13. Week 13Final Revision
    • Final Revision · 6 hours

      Review all modules and units covered in the course.. Practice constructing and utilizing improvised materials.. Prepare for assignments and tutor-marked assessments.. Consolidate understanding of key concepts and principles..

Preparing for the exam

What to do
  • Review all unit introductions and summaries to reinforce key concepts.
  • Practice constructing improvised apparatus from Modules 2 and 3.
  • Create concept maps linking improvisation principles to practical applications.
  • Focus on understanding the scientific principles behind each experiment.
  • Review all self-assessment exercises and their answers.
  • Allocate study time evenly across all modules, but prioritize difficult units.
  • Form study groups to discuss and clarify challenging concepts.
  • Practice past examination questions to familiarize yourself with the exam format.

Questions students ask about this course

What is SED313 about?

This course introduces the principles and philosophy of improvisation in integrated science teaching. It explores sourcing teaching materials from immediate and distant environments, emphasizing the utilization and selection of improvised resources. The course covers improvisable experiments in the integrated science curriculum, including physics, chemistry, biology, mathematics, and geography aspects. Students will learn to develop improvised apparatus and understand their advantages and limitations.

How many units does SED313 have?

SED313, "Improvisation In Integrated Science ", has 15 units across 3 modules, over 85 pages of course material. You can read it one unit at a time.

How many credit units is SED313?

SED313 carries 2 credit units, at 300 level in Education.

Is SED313 hard?

SED313 is rated intermediate level, with basic mathematical content. It is mostly theoretical, practical and problem solving work, and it has a practical component.

How long does SED313 take to study?

About 78 hours of study, spread across its 15 units.

How is SED313 assessed?

SED313 is assessed by assignments, tutor marked assessments and final examination.

What can I do with SED313?

Science Teacher, Science Educator, Curriculum Developer, Educational Consultant and Laboratory Technician.

More courses in Education

ECE313

Theories And Practice Of Early Childhood Education

2 credit units

Open ECE313
LIS305

Research Methods & Statistics in Library & Information Science

3 credit units

Open LIS305
EDU421

Fundamentals of Guidance and Counselling

2 credit units

Open EDU421