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Local Earthquake Awareness

Local Earthquake Awareness

Hosted by OSOS , contributed by Peterulfjohanh… on 9 April 2018

Even if almost all of Italy is in a seismic area with risk of an earthquake with a large magnitude and earthquakes are frequently addressed in the mass media, the scientific knowledge of the mechanisms of an earthquake is not very well known and the awareness of preventative measures is low. In particular, our school is in an area classified in the second highest level for dangerous seismic activity, however, since large earthquakes in the area happen very seldom (several hundreds of years in between), the preventative measures are often not given sufficient attention.

The aim of this project is to increase the local awareness of earthquakes, both from increasing the scientific understanding of earthquakes as well as increasing the awareness of how to prepare and protect the society from possible earthquakes. Rather than addressing the topic generally, the project takes its starting point from the local situation.

The topic is very real to the pupils. In 2012 there was a rather large earthquake with epicenter just about 70 km from our town (the Emilia 2012 earthquake). The quake caused rather large material damage and several persons were injured (about 27 deaths). The landscape and the terrain where the Emilia earthquake happened are very similar to our town and since all of the pupils felt the earthquake 2012, they are all very aware of the fact that a similar quake could happen very near to our town at any instant. This makes the project very current and important for the pupils.

The class is divided into groups of 4 pupils and each group has to work on a different task related to earth quakes, seismology and the preventative measures by our town and school. The groups have to search the needed information outside the classroom and in particular each group has to contact one institution or partner outside the school:

  • University of Bologna (theme: the present situation in the research on seismology);

  • Municipality of Lugo (theme: the preventative measures in our town);

  • Municipality of Lugo and the school leaders (theme: preventative measures of the school);

  • The families (theme: the preventative measures at home);

  • Laboratories of physics and Science in collaboration with the Golinelli foundation (theme: simulating and measuring an earthquake);

  • Museum of Bendandi, Faenza (theme: predictions of earthquakes).

The work should end in a written report from each group which also should be presented to the entire class orally. Furthermore each group has to make a dissemination plan of how to make their findings available to other students at the school and to the local society.

 

Learning Objectives
The following skills are required: Describe the scientific mechanisms of an earthquake. In a team solve a complex problem, searching information outside the school. Understand the importance of preventative measures to limit the effects of an earthquake.

Description and guidelines:

The project is initiated by a couple of lessons on seismic activity and earthquakes. The project is introduced together with the topics for the group activities. As a student you are asked to reflect upon the following issues:

  • What was your knowledge about earthquakes before the introductory lessons and how was this knowledge changed after the lessons.

  • What was the first impression of the topics for the group activities? Did you find the topics stimulating?

  • How were the groups formed? Which criteria did you use?

  • How did the group do to select the preferred topic? What was the decision based upon?

 

GROUP 1 - SCIENTIFIC DEEPENING -

Minguzzi Lorenzo,  Minguzzi Teresa,  Ragazzini Giorgia,  Tazzari Benedetta

Before starting the project we knew just a few things about earthquakes; after the introducing lessons and a meeting with experts from the university of Bologna, we could develop the topic more in detail. The theme we were assigned seemed stimulating because it gave us the opportunity to deepen the parts we found more interesting. The formation of the groups was decided together with the other students according to comfort criteria, while the teacher gave us specific topics based on our preferences. We chose to deepen it scientifically, because it was the most general approach of all and we could treat many different aspects of earthquakes.

 

GROUP 2 - MUNICIPALITY OF LOGO -

Giganti Francesco,  Ricci Frabattista Edoardo,  Ruani Francesco,  Smecca Simone

1) Before the beginning of the project we had general and not specific knowledge about earthquakes. Then we have increased our knowledge after we have started our work studying the phenomenon directly and talking with experts and the municipal engineer Fabio Minghini. Before the project, we had only some general information and we knew some basic methods of home prevention, so this project has been useful to know the causes of these shocks in scientific terms and to better understand the parameters that must the houses must respect to be built. 2) Our topic was stimulating because we had contacts with the municipal engineer Minghini and we have discovered how safe the houses we live in are. 3) Our group was formed mostly because of  ties of friendship but also because we knew we could work well together. 4) We chose to take care of the municipality because we were interested in learning more about the territory from which we come and where we live.

 

GROUP 3 - SEISMIC SAFETY AT SCHOOL -

Faccani Emanuele, Martelli Francesco, Randi Serena, Tellarini Federico

Before this experience we knew that an earthquake is an underground quake caused by the movements of the faults. Thanks to our science lessons, we could extend our knowledge in the theoretical part in depth. In general all the points seemed to be interesting and exciting for the great quantity of options. The groups have been created by the students but themes have been chosen by the teacher, knowing all our preferences. We chose the School theme because we thought that It would be useful and important to know the stability of the building where we spend most of our mornings.

 

GROUP 4 - RAISING AWARNESS -

Baldini Karin,  Boscarino Nicole,  Gaddoni Maria Fernanda,  Shahbaz

At the beginning we were mainly aware of the basic notions concerning earthquakes, for example the effects they cause on the ground and on buildings. Thanks to the lectures and the project we have deepened our knowledge on this subject. When the project was presented to us, we were intrigued by the topic, which is a current one, yet so many people are poorly informed about it. All the aspects presented to us were stimulating. The groups were formed spontaneously and in particular according to the links already formed within the class. The topic was chosen by the physics professor, taking into account the preferences expressed by the groups. Our first choice, the one that was assigned to us, has intrigued us from the beginning for the importance of making  families aware.

 

GROUP 5 - EARTHQUAKE SIMULATION -

Ballardini Daria,  Cocchi Matilde,  Dalpane Maria Giovanna,  Gatti Eleonora

Before the introductive lessons we had a basic knowledge about earthquakes: we knew what they were and what damages that they could cause to buildings. Nevertheless we knew nothing about how they are originated. Thanks to these lessons now we know how we can defend ourselves if there is an emergency. From the beginning, we have always been interested in this project, as it has allowed us to talk to a lot of experts and to make many experiments, so that we have developed our knowledge. The topics were very interesting because they permitted us to examine themes that otherwise we would not develop at school. Groups were chosen by students according to their preferences: they selected the mates that lived next to them; however we think they were balanced. To choose the topics we were free and we told our preference to the teacher, who finally decided for us.

 

GROUP 6 - EARTHQUAKE PREVISION -

Dalpozzo Simone,  Fabbri Letizia,  Gualandi Alaessia,  Lanconelli Marco

Before the lessons about earthquakes, our knowledge about this topic wasn’t so specific, being based only upon our experiences such as the earthquake in Emilia in 2012, but then, they have become deepener. At the beginning the topics seemed to be interesting, moreover prevision is an important theme that involves us as it can save many human lives. Talking about the composition of the groups, our teacher let us free to create them; in that way we were able to stay with our friends and to balance them according to our marks. Finally, we could consider the vicinity between us, opting for the nearest ones. Our topics are the prevision of earthquakes and the figure of Raffaele Bendandi, an Italian scientist who tried to find a correct method to predict earthquakes.

Description and guidelines:

In the “Imagine”-phase of the project a topic for the group activities is assigned to each group. As a student you are asked to reflect upon the following issues:

  • How was your first reaction to the assigned topic. Were you pleased or not? Explain why.

  • What was your first step to familiarize with the topic?

  • Did you make a plan for the work? If yes, present the plan and explain how the group made the plan.

 

GROUP 1 - SCENTIFIC DEEPENING -

Minguzzi Lorenzo,  Minguzzi Teresa,  Ragazzini Giorgia,  Tazzari Benedetta 

We were pleased with the fact that our teacher respected our request, because the theme we chose was the most interesting one for us. Firstly we talked about how to develop the project; then we asked another student from our school who had already done a similar work last year. At the end we wrote down a list of the different aspects that we were going to treat and we began to develop a report.

 

GROUP 2 - MUNICIPALITY OF LUGO -

Giganti Francesco,  Ricci Frabattista Edoardo,  Ruani Francesco,  Smecca Simone

 1) We are satisfied worth the theme assigned to us, in fact we also decided it together with our professor. 2) The first step to address the topic was to divide it into 3 parts: History, Territory and Prevention. 3) The plan to do the work consisted in dividing the theme into 3 parts, then we made arrangements with the municipal engineer Fabio Minghini to establish a meeting on which we based our scientific report.

 

GROUP 3 - SEISMIC SAFETY AT SCHOOL -

 Faccani Emanuele,  Martelli Francesco,  Randi Serena,  Tellarini Federico

We enjoyed our theme because the assignments of our teacher depended on our preferences. Firstly we looked for information through the School collaborators, the headmaster assistant, the secretay and some teachers suggested by our teacher. To do this work we principally relied on the help of external collaborators as the engineer Minghini of the "Comuni della Bassa Romagna"; for the other things we didn't follow a definite schedule.

 

GROUP 4 - RAISING AWARNESS - 

Baldini Karin,  Boscarino Nicole,  Gadooni Maria Fernanda,  Asia Shahbaz

We couldn't decide on two themes to be addressed and in the end we were happy that we were assigned one of the two topics we had chosen and indeed we were enthusiastic because in the end it was fun and it was a way to learn while being outdoors. The first step was to prepare a questionnaire to understand if and to what extent people are informed about the defense from earthquakes to reduce the risk of getting hurt and then we distributed it in different classes and to some inhabitants of the city. We organized a list of things to do, such as integrating the data collected from the questionnaires and divide them according to the age group.

 

GROUP 5 - EARTHQUAKE SIMULATION -   

Ballardini Daria,  Cocchi Matilde,  Dalpane Maria Giovanna,  Gatti Eleonora

We were really happy because this topic allowed us to observe the phenomena that originate an earthquake, simulating different kinds of lands, buildings and consequences. Experiments were made in the physics laboratory in the afternoons, and the material to make the experiments was given by the school. Firstly we had to ask the technician for information of the physics laboratory about the tools we had to use for the simulations. We planned a program of experiments we had to make using the Sismo Box, adding some personal ones. The first simulations we made had to explain how an earthquake is originated, then we learned about the many damages they cause to buildings.

 

GROUP 6 - EARTHQUAKE PREVISION-

Dalpozzo Siomone,  Fabbri Letizia,  Gualandi Alessia,  Lanconelli Marco

Since we had had the opportunity to choose the topic, we were happy for the ones assigned to us. At first, we called Paola Pescerelli Lagorio, who is the owner of Bendandi’s house, in order to visit it. She was really cooperative, in fact she gave us the opportunity to interview a professor of INGV(Alessandro Amato), who led some studies on Bendandi. After that, we wrote a report and finally we developed a PowerPoint to show our classmates our project.

Description and guidelines:

In the “Create”-phase of the project, the students perform the main work. It consists of individual research, contact with universities, authorities in the town, museums and other institutions. This phase also contains the writing of a slide-presentation and a final report for each group.

  • Describe the activities of your group in this phase.

  • Reflect on your work.

    • Did it go as planned?

    • What was most difficult?

    • Would you change anything if you could redo the work?

    • Are you pleased with the work and the results?

    • Have you learned something new? Comment!

    • Do you think the method is effective as a learning process?

 

GROUP 1 - SCENTIFIC DEEPENING -

Minguzzi Lorenzo,  Minguzzi Teresa,  Ragazzini Giorgia,  Tazzari Benedetta 

The research proceeded without particoular difficulties, even if we had a short time to complete it. The most problematic aspects we had to face were finding the right moment to meet up all together and choosig which topics we should talk about. If we could do our work again we wouldn't change anything because we managed to deepen the main points about earthquakes and we worked hard on this project. Moreover we have learnt many things, also thanks to a meeting with two univerisity professors, who explained us very well the most difficult topics about this theme very well. We appreciated the way the project went on, also because we could treat more in detail some aspects that at school normally we don't study. Then we consider working in groups a very costructive method.

 

GROUP 2 - MUNICIPALITY OF LUGO -

Giganti Francesco,  Ricci Frabattista Edoardo,  Ruani Francesco,  Smecca Simone

Everything went smoothly. We drew up the report thanks to a preventive organization and the meeting with the engineer Minghini who deals with earthquakes  in the municipality of Lugo. We didn’t find any kind of problem except for the lack of time but we resolved it with the postponement of the report delivery. discussing together we decided that we would not change anything if we could repeat the project. We are very happy with the work we have done and we have learnt many new things such as what constitutes the land on which we live and what would happen to our city in the case of an earthquake. We think that the method used by the professor was a good opportunity to learn in a different way.

 

GROUP 3 - SEISMIC SAFETY AT SCHOOL -

Faccani Emanuele,  Martelli Francesco,  Randi Serena,  Tellarini Federico

Our group has been able to collaborate to write the presentation and make the PowerPoint thanks to meetings in the afternoons. In general we hoped to use less time because we already had clear ideas about all the structure of our project. Because of misunderstandings and unexpected mishaps, the meetings with the external collaborators have been posticipated a lot of times. If we could repeat this project we would contact the external collaborators earlier, aware of their overload of work and so their unpredictability for all the meetings. In general we enjoyed our work beacuse It was a formative experience. In fact we could extend our knowledge, particularly about our school. The used method has been effective as learning process beacause It permits both to develop cooperative abilities and learn the discussed topics in a different and creative way

 

GROUP 4 - RAISING AWARNESS - 

Baldini Karin,  Boscarino Nicole,  Gadooni Maria Fernanda,  Asia Shahbaz

We have distributed the questionnaire and then elaborated the data, writing a report about the subject matter. The job has proceded as planned, even though we have had some problems in meeting and selecting the candidates for the questionnaire. Maybe next time we should better organize the timing of the distribution of the questionnaries, but the resulting work is satisfying and we think that in this way students are more involved in learning and looking into the matter we have been assigned.

 

GROUP 5 - EARTHQUAKE SIMULATION -

Ballardini Daria,  Cocchi Matilde,  Dal Pane Maria Giovanna, Gatti Eleonora 

Our group met in the physics laboratory in many afternoons and we made different simulations which were written on the Sismo Box guide. The most difficult thing was to find the right days when we were all free, as we had to conciliate this project and the school tasks. Moreover also understanding how to assemble and make the Sismo Box work has been a difficult thing, and to learn it we called a student that used this tool last year. The working method has been very useful, because with it we understood in a deepest way topics we would not study at school. Moreover working in groups we divided the main topics and thus we worked faster.We think that some parts of the project need to be changed: for example we would prefer to work in a more guided way. However thanks to this project we personally tested the phoenomena that originate an earthquake and the damages it can make.We put our knowledge, which was only theorical, to the test of practice. Studying is often theorical at school, so it could be interesting to experiment what we learn also on other occasions.To conclude we are satisfied of our work, as now we have a wider awareness about earthquakes, so we know how to defend ourselves if we need it.

 

GROUP 6 - EARTHQUAKE PREVISION -

Dal Pozzo Simone,  Fabbri Letizia,  Gualandi Alessia,Lanconelli Marco   

First of all we went to the library in Faenza where we could analyze a lot of documents about earthquake prevision and Bendandi’s figure. In order to deepen this latter topic, we visited the dwelling where he lived and we could see instruments and calculations created by himself that aren’t completely understood yet. Then we interviews Paola Pescerelli Lagorio, one of the biggest experts of this scientist. Finally, we had the possibility of interviewing an INGV professor (Alessandro Amato), with whom we analyzed the aspect of prevision. In conclusion, our sources were organized in a report and a PowerPoint that will be presented to our classmates.

Description and guidelines:

In this final phase you should present your work and a dissemination plan for communicating the results.

 

GROUP 1 - SCENTIFIC DEEPENING -

Minguzzi Lorenzo,  Minguzzi Teresa,  Tazzari Benedetta,  Ragazzini Giorgia

This is a short summary in english of our work.

An earthquake is a very frequent phenomenon in time, but localised in space. Seismic events are concentrated inside seismic belts that define the limits of aseismic areas. An earthquake is manifested as a movement of a sector of the Earth’s surface as a result of the sudden release of energy from a point within the Earth, called the focus or hypocentre.

Ongoing forces within the Earth cause the elastic deformation of rock bodies. If these forces exceed breaking point, the rocks are fractured and a fault is created (or reactivated). An earthquake occurs along the surface of a fault when deformed rocks abruptly return to equilibrium through the mechanism of elastic rebound, characterised by violent oscillations. This perturbation propagates in the surrounding areas. The process of elastic deformation of the rocks, up to the breaking point, and the successive elastic rebound, collectively constitute the seismic cycle, which can be repeated systematically in a region.

Propagation and recording of seismic waves

Throughout the manifestation of elastic rebound the perturbation propagates from the hypocentre in every direction by means of elastic waves. The area on the surface located vertically above the hypocentre is called the epicentre of the earthquake.

An earthquake generates elastic waves of three types:

- longitudinal waves (or compressional waves) – as they pass, a rock undergoes contractions and expansions in the same direction as the wave propagation. They are the fastest waves and are therefore also known as P-waves (from the Latin Primae, meaning first).

- transverse waves (or shear waves) – as they pass, a rock oscillates transversely to the direction of wave

propagation. They are slower and are therefore also known as S-waves (from the Latin Secundae, meaning second). S-waves do not propagate in fluids.

- surface waves are generated when the inner waves (P and S) reach the surface of the Earth. They travel on the surface but rapidly diminish in depth. There are two types of surface waves: Rayleigh waves (or R waves) and Love waves (or L-waves).

Movements of the ground during an earthquake are collected by seismographs and recorded in charts called seismograms. From the collected data information can be extracted, such as the duration and the “strength” of an earthquake, the location of the epicentre and hypocentre etc.

The “strength of an earthquake”

The “strength” of an earthquake is evaluated in terms of intensity and magnitude.

Intensity is the evaluation of the effects produced by a seismic event on people, objects and territory. The scale used in Europe and America to evaluate the intensity of seismic events is the MCS scale (Mercalli- Càncani-Sieberg), divided into 12 degrees. The values of intensity are also used for cartographic representations of the effects of an earthquake. Isoseismal lines are the lines that identify the boundaries of the bands in which earthquakes occur with equal intensity.

Magnitude measures the strength of an earthquake compared to a standard earthquake taken as a reference. It is calculated from the seismograms by measuring the maximum amplitude of the waves recorded by a seismogram, relative to the maximum amplitude of the waves recorded for a reference earthquake. The reference earthquake is one that produces, on a standard seismograph located 100 km from the epicenter, a seismogram with maximum amplitude equal to 0.001 mm. The scale of magnitude (Richter scale) is logarithmic: an increase of one unit of magnitude corresponds to an increase in size of ground motion by a factor of 10.

At present, different scales for the measurement of magnitude are in use: mb for body waves; MS for surface waves; and MW for moment magnitude.

Strong motion and acceleration. Earthquakes cause destruction in several ways. The primary hazards are the breaks in the ground surface that occur when faults rupture and the ground shaking, caused by seismic waves, radiated during the rupture. The ground accelerations near the epicenter of a large earthquakes can approach and even exceed the acceleration of gravity, so an object lying on the surface can literally be thrown into the air.

Effects of an earthquake

The arrival of seismic waves on the surface causes a complex oscillation of the ground, which is transmitted to overlying objects.

The main damage to buildings is caused primarily by horizontal movements of the ground and depends on several factors:

- ground accelerations,

- duration of the ground motion,

- type of construction,

- geological nature of the land on which they rest.

If an earthquake occurs beneath the seafloor, in coastal areas the effects of a tsunami may be felt. When the movement of the fault causing the earthquake abruptly raises or lowers the seafloor, the resulting oscillation of the mass of overlying water results in very long waves propagated at very high speeds. When the waves approach the coast they can reach 30 m in height.

Earthquakes and the Earth’s interior

The study of the propagation of seismic waves conveys information about the internal structure of the Earth. The planet is made up of concentric layers separated by seismic discontinuities, through which the waves abruptly change speed.

Three principal layers are identified:

- the crust, which extends from the surface to a depth of 10–35 km. It appears solid and is separated from its underlying layer by the Mohorovičic (or Moho) discontinuity;

- the mantle, extending from the Moho down to about 2,900 km in depth. It is solid, although there is a lowvelocity layer (between 70–250 km in depth), called the asthenosphere, which displays a more plastic behaviour. At the base of the mantle there is the Gutenberg discontinuity, which separates the mantle from the successive layer;

- the core, which is divided into the outer core, liquid (from 2,900–5,170 km in depth) and the inner core, solid (from a depth of 5,170 km to the centre of the Earth).

The crust and the outermost zone of the mantle down to the asthenosphere form the rigid lithosphere.

Geographical distribution of Earthquakes

The geographical distribution of the epicentres of earthquakes are aligned according to defined bands. Seismic zones correspond to specific structures of the Earth’s surface:

- Ocean ridges, characterised by earthquakes with surface hypocentres;

- Ocean trenches, with hypocentres aligned along the Benioff-Wadati zones, from the Earth surface to a

maximum depth of about 700km;

- Mountain ranges of recent formation, with hypocentres from the surface to intermediate-depth (70–300km).

In addition, there is a volcanism -related seismicity. Volcanic earthquakes (tremors) are ground vibrations produced by the movement of rising magma within the crust and the volcanic vent.

Coupling World seismicity map and seismic data (intensity, frequency and so) from historical earthquakes resulted in a World seismic hazard map, which describes the intensity of seismic shaking and ground disruption that can be expected over long term at some specified location (in PGA, Peak of Ground Acceleration).

Defense against earthquakes

Knowledge of seismic events is a prerequisite for defense against seismic hazard.

The most common approaches for the prediction of earthquakes include:

- deterministic prediction, which analyses the precursory phenomena, that is the events that are

expected to precede an earthquake;

- statistical prediction, based on the study and identification of seismic zones and the frequency with which earthquakes occur in these areas. Basic tools for statistical prediction are the seismic catalogues, which contain the characteristic data of all the earthquakes that have been been reported or for which an instrument record is available.

In all areas at risk, prevention of seismic hazard is essential. This can be achieved by various measures including the construction of earthquake-resistant buildings, education of the population, etc.

We thought that we could spread the results of our project using social media and television or organising meetings for adults and even for students.

 

Group 2 - MUNICIPALITY OF LUGO -

Giganti Francesco,  Ricci Frabattista Edoardo,  Ruani Francesco,  Smecca Simone 

We believe that it is very important to spread the research and the deepening we have done regarding the municipality of Lugo in order to make more people aware of the formation of an earthquake and above all the possible consequences. We think that the best ways to spread the relationship are to create a blog on the Internet, or even using prominent social networks such as Facebook or Instangram to involve the youngsters. Other ways of dissemination can be conferences organized both in schools and in public places with experts in the field to expose the topic. Our report is attached.

 

GROUP 3 - SEISMIC SAFETY AT SCHOOL -

Faccani Emanuele,  Martelli Francesco,  Randi Serena,  Tellarini Federico

Our group considers really important the condivision of our research in our school in order to make students and teachers informed about the seismic safety. To increase this we could also do a presentation for students and teachers and insert our report in the School website. Moreover we could create an Instagram or Facebook page to share some informations and involve a great number of people. Our group has made a research about the seismic safety at school. First we searched on internet some informations about the compositions of the ground and the materials used to build our school, important informations for the safety in case of an earthquake. Then we made some scientific researches to understand the effects of an earthquake in a better way. We have also made a research about our region, Emilia-Romagna, and our Nation, Italy, to have some statistics about the number of buildings in safe after an earthquake and the damages caused by an earthquake.

 

GROUP 4 - RAISING AWARENESS -

Baldini Karin,  Boscarino Nicole,  Gaddoni Maria Fernanda,  Shahbaz Asia

Our group had the task of creating a questionnaire with questions related to earthquakes and how to behave in case of a seismic shock. The test was disseminated in our school, in particular the first, second, third, our fourth and fifth grades. In fact, we wanted to get the widest possible sample to understand how people are actually informed, even if they are of different ages. Also for this reason it was decided to spread and propose the questionnaire to passersby who were in Lugo (RA, Italy). Then one afternoon our group went to the city square and worked to have the citizens fill out the questionnaire. After doing this, we obtained the data related to each answer from the various questionnaires, and then created charts that showed the preparation on this topic. Finally we wrote a report that summarized and explained in more detail the correct answers to the questionnaire and we investigated how to behave before, during and after an earthquake. Our report is attached.

 

GROUP 5 - EARTHQUAKE SIMULATION -

Ballardini Daria,  Cocchi Matilde,  Dalpane Maria Giovanna,  Gatti Eleonora

The fifth group of the Ricci Curbastro school of Lugo, whose members are Gatti Eleonora, Dalpane Maria Giovanna, Cocchi Matilde and Ballardini Daria has made some experiments about the causes and the effects of earthquakes. The main topics were the phoenomenon of the resonance, how to predict an earthquake, and the phoenomenon of the liquefaction. The main tool which they used was the Sismo Box and the application Audacity For Speed Waves on the computer. carrying out these experiments they better understood learned how an earthquake works and how we can difend ourselves in case of need. To broadcast the results we got, we think it would be useful to create a blog on the Net, or to open a profile on a Social Media like Instagram or Facebook. Otherwise some files could be made, containing the most important results we got. These files should be given to teachers, who should explain them to their students. A last possibility could be to carry out some meetings in the afternoon to repeat the experiments.

 

GROUP 6 - EARTHQUAKE PREVISION -

Dalpozzo Simone,  Fabbri Letizia,  Gualandi Alessia,  Lanconelli Marco

The sixth group of the Ricci Curbastro school of Lugo has made a lot of research about how to prevent an earthquake interviewing an expert of INGV and visiting the house of Raffaele Bendandi, who tried to find a method of prevision, failing in this attempt. Despite his failure, a lot of people believe that his calculations were right, but misunderstood. Preventing an earthquake is impossible, because we have to consider too many factors that change from one place to another: for example the subsoil composition is very variable as well as the depth at which the earthquake can happen. Perhaps, one day, thanks to research, we will be able to do it. We are going to publish our results on our school website in order to make people more responsible about this topic. Moreover, we could create an Instagram page to sensitize teenagers, making them aware of this problem; we have attached our report in Italian and our logo.