To Smoke or Not To Smoke? It’s Not Questionable!

Hey you! Throw away that cigarette’s butt. Of course, put your cigarette out before tossing it in the ash catcher! It will take you a little time to answer the following questions. As a teenager, do you think youngsters are aware that cigarette smoke inhalation is a completely unnatural behaviour? Are they aware of the lethal mix of substances within cigarette smoke? Do they know how Tobacco production and consumption undermine the achievement of several targets related with Sustainable Development Goals of the Agenda 2030?

Well, on the basis of the results of the project we carried out in the last month, our answer could be summarised in this way: not enough!

We would like to raise students’ interest in Tobacco-related hazards. Not only those that directly affect smoker’s health, but also the ones that threat their families, their communities and people involved in tobacco farming. We would focus on the complexity of the problem rather than provide students with a reductive approach. Our Big Idea is that to find effective and suitable solutions, future scientists should also be able to face complexity.

OUR TEAM

We are a team of teachers from the Upper Secondary School “G. Galilei” in Jesi, a Technical Biotech School in the province of Ancona, in the Marche region. The school community vision is always leading us to contextualise learning in real-life. By means of a well-developed network at both local and international level, we are always provided with riveting opportunities to develop students’ and teachers’ abilities to cope with the challenges we are facing nowadays.

TEACHERS’ TRAINING

It all started in September, when a Professional Development Course to spread the use of Inquiry-Based Science Teaching was organized by the National Association of Science Teachers (ANISN). Under the guidance of two trainer teachers, Chiara Garulli and Luigina Renzi, we enhanced our capabilities to plan and implement our project. We also got the opportunity to deepen our knowledge in the field of Tobacco Hazards inviting experts from the Polytechnic University of The Marche Region. They also provide career guidance. “Professional Go Back to School”, the activity we used, is just one of the many ways to present STEM jobs in Classroom. Teachers can find plenty of resources in the guidelines developed by STEAM-(IT) / Stem Career Advisers Network. Finally, spellbinding ideas to promote active learning where grabbed from the MOOC “Active Learning and Innovative Teaching in Flexible Learning Spaces and the related Guidelines in learning space innovations | Unesco IIEP Learning Portal

INQUIRY BASED LEARNING

Students were asked to solve a problem in group of four. They should prove which kind of cigarette was the most poisonous among several samples available for the comparison. They were provided with an apparatus for cigarette tar extraction, an analytical scale, lab glassware, laboratory oven, dryer, solvents, nicotine standard and other materials to perform Thin Layer Chromatography.

According to the different steps of the Scientific Method, students must form a hypothesis, a prediction based on observations and /or previous knowledge, avoiding any use of web search. The next step was to plan an experiment to prove their prediction right. The two steps were carried out using a think, pair and share activity. Each group should come up with a shared experimental plan. The following plenary discussion was aimed to present groups’ speculation and plan. No feedback was provided in terms of wrong or right answers but, teachers had the opportunity to guide them asking sense-making questions. The discussion helped the groups to improve the experimental plan. The experiments were implemented. Data were collected and analysed. Each group drew its conclusions and summarised the whole study using a scientific poster to give a presentation. Finally, findings were discussed in plenary to better understand weaknesses and strengths in each experience.

At the end of the day, students agreed on the best way to compare samples. It consists in a quantitative comparison, the gravimetric analysis of extracted tar from different samples. Further qualitative information could be gathered by means of thin layer chromatography based on the comparison of eluted tar samples and standards.

The final activity was aimed to explain features of tobacco first, second and third hand smoke and the effects of exposure on the human body. Information was provided about the carcinogenesis process induced by nitrosamine and benzopyrene metabolism, which is mediated by Cytochrome P450, a superfamily of enzymes responsible for oxidizing xenobiotics. Consequently, the concept of polymorphism was contextualized to explain the occurrence of altered or enhanced metabolisms that can lead to different health conditions among smokers. Last but not least, teachers make clear that no evidence were shown about the innocuity of Tobacco Heated Products and Electronic Nicotine Delivery Systems.

PROFESSIONAL GO BACK TO SCHOOL

Considering the rate of our school students that choose to enroll in STEM academic courses, we would like to offer guidance for STEM careers related with the topic. Internships and Orientation programs provide a wide list of interlocutors to whom ask support to help students to discover the more appropriate career according to their passion, attitudes, willingness, and skills.

Keeping updated with the continuous changes we are experiencing both in education and the job market, whether local or global, is extremely relevant for teaching professionals and students. This way, we can cope with a challenge of paramount importance: to develop students’ hard and soft skills, which are fundamental assets in higher job market demand.

In this experience we got in touch with three experts from Polytechnical University of Marche (UNIVPM), Professor Pier Luigi Stipa, a chemistry researcher in charge of Orientation program for UNIVPM, Professor Stefano Gasparini specialized in pulmonary diseases and respiratory physiopathology and, a PhD candidate Giulia Lucia, who is studying the effects of cigarette butts on the natural marine environment.

Due to Covid19 restriction, the activity was held online. One of our students was in charge of explaining the undertaken learning pathway and the results in terms of raise of interest in the field and gaining of expertise and skills.

Then, students could pose some questions inheriting the careers of involved STEM professionals according to curiosities raised during the activity preparation. The expert addressed the questions and then gave a presentation.

Information was delivered according to the specific discipline approach that experts use facing different aspects of the same phenomenon, the tobacco consumption.

CLIL: TOBACCO AND SDGS OF 2030 AGENDA

On top of that, the last part of the project concerned the interference of Tobacco farming and consumption with principles of equity, prosperity, and sustainability contemplated in 2030 Agenda’s SDGs. In groups the students were involved in the production of a podcast pilot episode. The aim was to raise awareness among their peers on the topic. Students were provided with original material from World Health Organization and  from another acknowledged project Sustainable Development or Tobacco – unfair tobacco. According to activity described in the picture, they had the opportunity to explore the materials and agree on the answers to relevant questions. The process enabled them to highlight the main facts they should use to raise awareness among peers.

EVALUATION

Students’ transferable skills were assessed by means of ongoing observations based on criteria such as participation, accountability, and time management. Hard skills assessment was carried out during laboratory experiments by means of observations and then through the evaluation of poster contents. Knowledge assessment was carried out using open ended and multiple-choice questions.

CONCLUSION

The activity addresses a topic that is meaningful for the students. They are quite curious about the effects of such products. We spotlighted some misconceptions that must be confuted. According to the Framework Convention for Tobacco Control, awareness about the hazards related to Tobacco consumption is one of the most important measures to control the spread of this plague.

The activities the students carried out were not only an opportunity to contextualize their previous knowledge and abilities but also to test and develop new competences.

Authentic learning is an umbrella term that encloses all the different methods we used during this incredible journey. As in life, both of us students and teachers have experienced some problems facing new situations but, at the end of the day, we were all able to find solutions, to communicate with each other and, finally, to manage to become a better and upskilled version of ourselves.

Thank you for reading!

Doing Science in the Stone Age

Dates took place: Online, 26 -28 April 2021.

Learning Scenario Link: The detailed learning scenario with all the relative material has been posted on (Google drive) https://drive.google.com/drive/folders/1faYL-Wa-K3BJBbiqcG0CiR4tDmWxJEGN?usp=sharing

Authors and creators: Aliki Maria Makri – Iraklis Karagiannis – Nektaria Giakmoglidou – Nikolaos Makris – Roxanthi Nikou – Theoni Dimopoulou. (Teachers of “Science Culture Educational Center -Aristotelio- STEAM Academy”).

Students ages: 10-12 (in groups of 4 members)

Teaching time: 14 hours

Online Platforms: Web browser – Microsoft teams or Webex teams – Google translate  

Online tools:

Materials:

  • Personal computers – Laptops – Tablets – Smartphone- Projector – Camera
  • Textbooks – Resources provided by the teacher
  • Tools: Different stones, pieces of wood, bones, Natural cord,  
  • Drawing materials: Paperboard (1m*2m), Colors, Paints, Markers, Pencils, Rulers, Millimeter Paper A3 size, Syringe, Disposable gloves, Cylindrical sticks, Cord Scissors
  • Agriculture: Wheat ears, Wooden mortar, Transparent plastic container, Soil or cotton
  • Dioramas: Any relative constructive material provided by the art teacher    
  • Optional: Lego – Lego EV3 – Lego Spike prime    

Summary:

The specific learning scenario aims at introducing students to science, scientists and scientific thinking by using a different teaching approach. It attempts to dispel myths and stereotypes pertaining to the above-mentioned fields and create the conditions so that science becomes a familiar framework for all students. On understanding that science contributes to all kinds of human activities, the students will intuitively realize that scientific thinking and science have contributed and still do to the evolution of humanity and really define the cultural context of each era. To achieve these specific targets, the scenario uses the Nature of Science approach (NOS) and focuses on knowledge about science which includes “understanding the nature of science as a human activity and the power and limitations of scientific knowledge” (OECD 2012 – European Commission 2017).

Picture is by the author – (Attribution CC-BY)

The students are introduced to a very old, different era and start to understand human thinking by tracing the first steps taken by mankind. They are asked to go back in time to that era and not only offer solutions to problems of the time but also to compare their solutions to those given by the people living back then.

Picture is by the author – (Attribution CC-BY)

By taking part in activities, in an interdisciplinary context, the students cooperate using imagination, come to decisions or construct objects as a team and each member contributes creatively to the decisions or creations with his personal active participation (Cooperative Learning). During the different steps of the scenario, the students are asked to observe, gather, combine and analyze data from conditions given to them (Inquiry Based Science Education (IBSE)). Furthermore, they are asked to solve open problems and answer real-life questions by applying divergent thinking, and using their knowledge, experiences, critical thinking and creative abilities (Problem Based Learning). They work in teams interacting with each other as well as with the content and the new information given to them which they gradually start acquiring (Content and Language Integrated Learning – CLIL).They collect information by themselves and by analyzing factors are led to group conclusions and findings that are announced in the plenary of the class (Flipped Classroom). Dealing with situations which demand better communication, interaction and critical thinking, the students gradually build on their previous personal knowledge and become increasingly better at solving problems (Project Based Learning).They build up their knowledge through constructions using analytic-synthetic thinking (DIY Science) and can then convey what they learned to the others (Collective Learning). A positive consequence is that they develop strategies which contribute to their learning how to learn (Metacognition).

Picture is by the author – (Attribution CC-BY)

During these procedures, the students intuitively comprehend (through comparison with early humans) that science constitutes a human endeavor, based on acquiring knowledge, its’ consequences are inextricably linked to technology and define the level of a civilization. A very important fact is that the students, resort to deeper thinking, set up their own scientific community, learn how to talk about scientific subjects using arguments and thus develop scientific literacy (OECD 2015). They acquire 21st century skills and can recall and use them in decision-making on everyday situations so that they become responsible citizens and can make informed decisions for the future of mankind.

Learning outcomes:

  • Nature of Science (NOS): To dispel myths and stereotypes related to science, scientists and technology. To define science as human endeavour and process
  • Scientific Literacy: To explain phenomena scientifically. To recognize, offer and evaluate explanations for a range of natural and technological phenomena. To describe and appraise scientific investigations and propose ways of addressing questions. To analyze and evaluate data, claims and arguments in a variety of representations and draw appropriate scientific conclusions
  • Physics: To understand how weather conditions are formed and how they affect our living environment. To understand how friction brings about an increase in temperature 
  • History: To become familiar with a certain period of prehistory called “Stone age” and its subdivisions. To realize how archaeologists interpret findings so as to reach conclusions.  
  • Biology:  To compare similarities and differences between human and animals with regard to their anatomy. To explain the important role that nutrition played in the evolution of the human body and in thinking
  • Technology: To realize that observation and application of processes (basic elements of science) produce and develop results those meet people’s needs (Technology – Tools). To also realize that the basic algorithmic process is the primary step in the case of coding. (Robotics – EV3 or Spike Prime)
  • Ecology: To understand that biodiversity is predominant in nature, in fauna and flora that it depends on certain conditions. To perceive that evolution of any species, including humans, depends on natural selection 
  • Art History: To get to know that cave painting was the first attempt of humans to produce a symbolic language in their attempts to express and communicate their’ experiences. To also realize that the application of various techniques and colors indicates the evolution of thought itself
  • Art: To Imagine themselves as early humans painting landscapes. To design presentations and enrich them graphically. To use scale to construct dioramas about the stone age period.
  • Engineering:  To analyze the reasons why the wheel wasn’t invented during that period despite the great need for relocation (limitation of science). To design and construct shelters as well as to design the most suitable proper location and topographical view of a stone-age city. To make constructions using Lego bricks following instructions  
  • Natural Science: To become familiar with agricultural processes by extracting and planting seeds and growing edible products (flowers)
  • Mathematics: To apply analogies to manage plants use. To apply geometry and shape properties to construct shelters. To apply geometry and scales so as to design a city.  
Picture is by the author – (Attribution CC-BY)

Teaching outcomes:

Τhe learning scenario was designed and implemented by the teachers and students of “Science Culture Educational Center “Aristotelio” – STEAM Academy”.

The design process of this learning scenario, time-consuming though it may be, has given us, the teachers, the unique opportunity to constructively cooperate on all levels. By delving into different educational methodologies and through the discovery of new educational approaches, we have creatively enriched and further developed the scenario. Above all, however, it helped us significantly with the positive feedback of our teaching practice as a whole.

The learning scenario has been implemented on and evaluated by students of different age groups and in particular from 6 to 12 years old. The purpose of the implementation was not only to accurately determine the age group which would more likely benefit from the scenario but also to possibly enrich it with more specialized activities.

During the implementation, it was concluded that students of all ages liked working collaboratively and each one of them was able to contribute to the produced work using his personal experiences, knowledge, abilities and skills. Furthermore, all the students liked the interdisciplinary approach to the subject as they understood the interdependence of learning and acquiring knowledge with the help of different fields. This multilevel approach was what helped them intuitively comprehend that solving open everyday problems asks for analysis, data processing and critical thinking.

What is more, it has been observed that young students (6-8 years-old), had difficulty understanding time sequence in the distant past. To this age group, the past is one and uniform and that is why they are not able to understand time sequence. This age group, together with the 8-10 year-olds, had trouble dealing with the nature of science and coming up with satisfactory answers to these specific issues. Some of the activities (shelter and settlement construction) were found to be quite demanding for them.

On the other hand, the 10-12 age groups managed to respond really well to all the demands of the scenario and achieved extremely high rates in solving the open problems. An equally important fact is that they worked collaboratively and developed the skills of scientific analysis, data processing as well as scientific argumentation, which have rendered them scientifically literate and have offered them the abilities needed to evolve into responsible citizens.

During 26 – 28 April 2021 the scenario implemented online with 10 – 12 years old students. Given the circumstances the original learning scenario had to be adapted as the activities related to constructions and the activity of robotics could not be carried out online by the students. However, the adaptation of the learning scenario did not make it difficult for the students to achieve the learning outcomes as the other activities were largely enriched with differentiated material which can be presented online.

Students make a difference the with STEM

Think sketch vector – The visual was provided by the Author – Attribution CC-BY

STEM teachers from nine schools in six different cities in Turkey we have come together. And 50 students. For Sustainable Development Goals. Our aim is to provide 21st century skills. We carried out this project together with 3 schools from İzmir, 2 schools from Ankara. With one school each from Manisa, Kütahya, Eskişehir and Kocaeli cities. So this was a country project.

In the I Design with STEM project, we improved our problem solving skills. Our students discovered STEM fields and produced projects.They took responsibility and learned to express their feelings. They found solutions to problems with their peers from different cities. And learned to use technology wisely. Because they really needed it.

Activities and Projects

Our students learned the web 2.0 tools. Made various collaborative activities while living in a meeting and social environment. Because we wanted students to make a difference with STEM.

In addition, we discussed different topics in STEM activities every month in our project. Topics included: Recycling, Energy Conversion and Design, Technologies for the Disabled.

We also formed mixed teams at each event. Teachers and students changed teams in every respect. Students designed original products for real life problems and to make life easier. As a result of this, we produced 15 different projects in 6 months with teams.

Students STEM projects that make a difference

Rainwater recycle system: We collected rainwater from the roofs of the houses. We also recycled the waste water that went to the sewer.

Shelf organizer: We produced more useful furniture with recycled materials.

Nature friendly and economical building: We designed an nature friendly house that generates electricity from waste.

Waste battery box: We recycled the batteries so that they do not harm the nature.

Garbage separation system: We designed a system that collects and separates garbage automatically.

Geological village: We have developed an environmentally friendly village system that produces everything on its own.

Solar lighting system: We provided lighting with solar channels for buildings that need daytime lighting.

Technological animal shelter: We built an unmanned and intelligent animal shelter.

Solar home heating system: We brought sunlight to all four parts of the house and provided heating.

Smart prosthetic arm: We said it should be more than just one hand.

Smart wheelchair: This wheelchair simply cannot fly. For now.

Playground for disabled children: We designed special parks and toys for children with disabilities.

Special bus for the disabled: We built a barrier-free bus.

Smart home system: An nature friendly and safe smart home. Who would not want that.

We learned science, tech, mathematics and engineering disciplines with real life problems. We exhibited student work examples on the website we prepared.

The pictures belong to the Author – Attribution CC-BY

Scientix Support for the Project

To support our project, Scientix Turkey Coordinator Dr. Tunç Erdal AKDUR and Scientix Ambassador Baki KARAKOÇ presented. From every city in Turkey for our presentation we had more than 300 participants. In this meeting, the work of teachers and students was introduced. We explained the project preparation techniques and STEM School Label application. Also our project was featured in the national and international press.

Partner and Article Author: Baki KARAKOÇ (Scientix Ambassador)

Founders: Fatma KARAKOÇ, Ahsen DOĞANAY

Project Partners:

Emine GÜLMEZ, Gülcan APAYDIN, Gülnur KAPLAN, İ.Selin AYDOĞDU, Sultan YERLİKAYA, Zehra AKDOĞAN

Project Blog

Project Website

Problem awareness: If there is a problem, there is an improvement!

We always say health comes first. Because without health, material wealth and nothing in life matter. As long as a person is healthy, he can develop. However, there are some factors that affect this development. The most important are needs and problems.

One of the primary goals in education is to raise individuals who can solve problems. It can be helpful to both themselves and others. Approaches such as IBSE, PBL, Design Thinking, STEM are applied to gain problem-solving skills. The most basic factor that ensures success is to make students good observers and make them aware of the problems.

Creating problem awareness

We use cyclical steps such as the Design process and Innovation process in all activities in the Technology and Design course. But the first step of these processes is always the Problem. However, a student who understands and defines the problem well can be successful in the continuation of the process. To achieve this, we dedicate 1-2 weeks of Design Thinking to the problem phase only.

Continue reading

ARE WE ENERGY?

Design of the project

“Are we energy?”

This is the first question we use to introduce our Project.

At Escola Mestre Gibert, teachers believe all knowledge is connected.
Thus, 4th level Primary School teachers have decide to plan an interdisciplinary Renewable Energy Project, where all subjects can be included. The name of the project will be “Human Activity is Energy”.

Critical thinking, cooperation, creativity and communication are our skills

To engage the children, we use inquire based-learning. We build the project while creating challenges that they will solve and answer along with adding achievements.

As a result, teachers create and launch a collaborative project, where students’ experiments prove that energy is everywhere. Consequently, all subjects can contribute to build meaningful and comprehensive energy learning.

In this way, through Arts, Physical Education and Music, children can experiment how to show and to play with their energy.

In subjects such as Science, Technology, English Language and First Language, students build knowledge about energy and its uses. The English Language is the vehicular language to transmit the result of the learning process.

Moreover, a father of a student whose task is related to Clean Energies, will come to deliver a speech as an expert.

The challenge of students’ teamwork is the study of Renewable and Sustainable Energy, doing an internet research. They use the DRIVE platform to organize their work and organize an exposition in class. In this activity, the peers assessment will be very important.

Project evaluation

As we mentioned before, co-evaluation among peers is very important in order to obtain a good assessment. Students have to participate actively in all the learning process and until the end. Children use rubrics to pay attention to peers’ exposition and to express their opinions.

Finally, the children will perform a choreography to conclude the project, playing with multi-colour satin ribbons. For the soundtrack, previously we will record children’s voices singing a song called “Energize”, especially composed for the final show.

The song’s message is about Energy Resources and Earth Planet Health. Children enjoy singing the song and are engaging with its message:

On the last day of the project, students and teachers will gather together for a manifestation with banners, all spread around the playground, shouting messages such as: “save the Planet”, “we must use sustainable energy”, “SOS, planet Earth needs us!!”.

To conclude, we are convinced the project will engage the children, because they will be the protagonists of their learning process.