In this work we present an experimental set of physical optics and seek to approach this concept in an accessible way for elementary school classes. The items involved in the kit are (i) two multi-crack grids (N-cracks) produced with cutouts of CD's and DVD's, (ii) octagonal-shaped polarizers made from films found on display screens and televisions, and (iii) plates with different types of openings used in diffraction experiments. All materials involved can be handled in formal and informal environments. Our proposal consists of experimental practices of Physics with classes that are more interesting for students. For this reason, we opted for an educational method known as ISLE  - Investigative Science Environment, this active methodology we combine constructivist concepts. Exposing students to the contents of the nature of light in order to develop the learning of the laws of physical optics through the insertion of the scientific method.

In this work we present a portable experiments in order to approach the concepts of
electromagnetic induction to Basic Education students. The materials used to perform the experiments are easy to acquire, and the set of them can be purchased in the form of an experimental kit, easily transportable. The proposal is that students learn the concepts through classroom discussion and the execution of experiments, with greater emphasis on interactive classes over lectures. For this, we were inspired by the methodology ISLE developed by the group from Rutgers University, led by Professor Eugenia Etkina. The foundation of this proposal is that students study and learn physical concepts similar way scientists work to setup scientific knowledge. Such methodology is called ―Investigative Science Learning Environment‖ (ISLE). In this method, students are introduced to the scientific method, in high school, in a concrete way where observation, proposition and refutation of hypotheses are fundamental for creating a model for the physical phenomenon studied. To evaluate the methodology and use of the portable experiment, we present a proposal for a didactic sequence to be applied to a twelve-year high school class.

With the improvement of science, difficulties arise to insert it in society, the school environment being its main diffuser. Recognizing the importance of science education, which consists in sharing information about science with the general public, so as not to be restricted to the scientific community, and in order to provide theoretical and methodological support for a useful didactic proposal to meet the goals of the teaching Physics in the context of Basic Education, focusing on students in the 3rd grade of high school, we elaborated a didactic sequence that integrates topics of Modern and Contemporary Physics and Astrophysics within the perspective of the Learning Contextualization Methodology, based on the problematization and resolution of problems through the student's experiential context. In order to facilitate the use by other teachers, we present a referential, conceptual and methodological overview, in addition to details of the preparation, application and analysis of results.

The information and communication technologies (ICT) can enhance the learning of physical
concepts taught in high school. This work studies the uniform rectilinear movement (MRU)
using videoanalysis. The study is systematized with a didactic sequence divided into three
moments, totaling six classes. In this context, the didactic sequence allows: the historical
approach of the cinematograph, the analysis of the movement with sequential images, the
experimental practice, using two low-cost experiments, and the use of the applications:
Infinite Shot, Vernier Graphical GW and the Tracker. With these applications it is possible to
make the videoanalysis of the movement of a washer along a threaded rod and a sphere that
moves inside a hose with oil, thus providing a potentially meaningful learning of the
kinematics of the movement. In a first approach, both the washer and the ball moves in a
straight line and at a constant speed. The characteristic of the movement of these bodies are
investigated by the students with the use of the smartphones associated with the techniques
of videoanalysis. Based on spiral teaching, proposed by theorist Jerome Bruner, the concepts
of movement are visited and revisited, allowing the gradual construction of knowledge,
moving from the most elementary to the most complex aspects.

This work seeks to supply the need to insert students who have Attention Deficit Disorder (ADD) in the educational scope by making an educational product composed of a set of didactic sequences based on the significant learning of David Ausubel. In the search for the insertion of these people with disabilities in the teaching and learning process and in line with one of the lines of research and development of the National Professional Master in Physics Teaching (MNPEF / SBF). The master's degree aims at the development of products and forms of approach aiming at Physics content suitable for elementary and high school students, in an integrated way with other subjects, we designed this project with the aim of contributing to improve the teaching-learning process of these students, in accordance with current social inclusion legal requirements. In view of the national scenario, in compliance with the legislation in force, we observe that in schools the number of students with a disability is increasing more and more, even without having an adequate preparation for this purpose and, in this scenario, teachers have to look for ways to deal with that situation. The inclusion of students with disabilities in mainstream schools is enshrined in the legal texts, however, inclusive education does not end with observance of the law that recognizes and guarantees it, but requires a change in the attitude, perception and conception of educational systems. This implies expanding the concept of special education and working for and for diversity, reformulating the principles, goals and curricula of schools from an inclusive perspective, equipping all students, whether they are considered “normal” or “with special educational needs”, to insertion and performance in society, thus exercising citizenship. This work brings didactic tools materialized in didactic sequences to be used with high school students with such learning needs, with the objective of offering a pedagogical tool that facilitates learning in the classroom, of students with learning disabilities, specifically at this level. This project aims to bring to the classroom a content of theoretical and experimental Magnetism, where the practical part aims to consolidate the theory seen in the classroom. The experiments are adapted to the student's reality and their daily lives, in order to present new teaching methods that bring diversification of the students' learning.

It is not new that technologies have been affecting humanity’s way of life and the way how people interacted. In the learning-teaching process, where technologies are ever closer to students and the classroom, the evolution is not different. In this context, a tool that has been obtaining space is Virtual Reality, where the individual has the possibility to visit other environments without leaving his/her place. In this study, we elaborated a didactic sequence by using Virtual Reality and following the precepts of the theory of meaningfulness of David Ausubel. This theory establishes that learning is considered significant when the knowledge to be learned anchors itself on concepts relevant to students. We used the scientific basis on the phenomenon that occurred in Sobral/CE, and for what proves the General Relativity from Albert Einstein. This theme is resident in the context of modern physics in high school which has been a great challenge for researchers and teachers seeking forms of how to approach this in teaching. Thus, we trying to understand how virtual reality can impact the teaching and learning process of General Relativity, we developed this teaching sequence. We share our approach into five moments, where students' prior knowledge is the starting point, and, in one of those moments, we also used a didactic space-time curvature experiment that complements the virtual reality software simulation, whose simulation was in the fourth moment of our sequence. All equipment and experiments of this sequence possibility the use of low-cost items. The educational product, that is the teaching sequence, was applied in the second half of 2019 in a public school in the state of Rio Grande do Norte. And based on the results obtained from the application and perception with objective criteria for measuring success. From that, we can deduce that the use of virtual reality together with a teaching sequence, can bring positive results and improvement in student performance during the teaching and learning process. Moreover, we measured indicative of meaningful learning when teaching the thematic. Globally we concluded and we are believing that this proposal to use Virtual Reality, can be helpful throughout other levels of teaching, and impacting other contents. Lastly, we believe that our work can contribute to future applications and the practice of teaching.

The Constitution of the Federative Republic of Brazil states (Art. 205 and Art. 206)

that education is a right of everyone and the duty of the State and of the family, and

that there must be equality of access and permanence in school. Thus, students with

special needs must be inserted in the school context and enjoy the full enjoyment of

all the rights of students without disabilities. Thinking about this, a survey was

conducted among some teachers of the state public network of Rio Grande do Norte

on the teaching of physics for deaf students. This research found that many of these

teachers do not have the necessary knowledge to establish communication with their

students, which directly influences the quality of teaching taught. In addition, they find

it difficult to find suitable materials that can minimize this problem. This work presents

a proposal to mitigate this situation. It is the development of lessons from a bilingual

perspective that can be applied in the classroom with the listening students or given

to these students to support the study at home. The main resource for this work

focuses on the production of video lessons for all students, with narration in

Portuguese for listeners and performed in LIBRAS – Brazilian Sign Language – for

deaf students. The production of these video lessons considers relevant the essential

pedagogical moments, according to the ample knowledge in the specialized literature

of the research in physics teaching.

The teaching of physics has been an arduous task in recent times and thinking about this difficulty the present work seeks to expose the development of alternative methodologies to solve this problem. This is an applied research in Wave Teaching where the methodology of the inverted classroom was applied that aims to work teaching in the collaborative perspective, thus making the learning more meaningful. The elaboration of this project was based on the theory of Vygotsky with the levels of development in the process of teaching / learning and the PeerInstruction method based on the theory of Erick Mazur. The project was implemented in two classes of the Secondary High School. In class A, the inverted classroom methodology was applied using some technological tools such as: YouTube videotapes, Plickers application, Google forms and Google classroom - these were used as a subsidy form for three didactic sequences used in the teaching of waves. In class B, the traditional methodology was applied. This distinct process between the two classes aimed to investigate the efficiency of the inverted classroom methodology. After the classes it was observed through the students' speech and written evaluation that the group A obtained greater performance in relation to group B. The project was valid since it could contribute with a new vision of the teaching of Waves.

This work aims to present the development of an educational product that is used as a teaching tool in the physics classes, suggesting a methodological approach in teaching kinematics, more precisely on concepts related to uniform movement, to high school students from the use of  the low cost Educational Robotics. It proposes a manual didactic of development of the prototype, titled Robô-Car, commanded by programming from a Arduino platform, as well as a methodology, in didactic sequence, that consists of a practical part using the robot applied to the study of movement, where students will participate actively, and a theoretical with the subsequent analysis of the data collected. In this first moment we aim to work in a playful, interactive and intuitive the concepts of movement, using Educational Robotics as a tool in the teaching-learning process, considering the rates of variation, its application to the study of motion and the error in the measurement of quantities. In the theoretical part, the ideas addressed in the experiment will be debated from the organization and analysis of the collected data, being the teacher responsible for the orientation, with interventions, increasingly active until the theory is unveiled. In this process, the student will construct a logical sequence of reasoning allowing, based on your knowledge of world, the understanding of the proposed theory. It has been found that the use of Educational Robotics in classrooms is an extraordinary methodological resource, since besides unlimited use, it is also extremely attractive. This characteristic is fundamental, since it excites the students causing greater stimulation both to concentrate and to debate the activities proposed in the room.

Physics is a very present science in our daily lives. Even so, teaching this discipline is not as trivial as it seems. There are several difficulties encountered by the teacher in his teaching practice, among them is the ability to associate his classes with the dynamism of the current society. Thinking about it, these were the motivations for creating a board game - "Knowing the Subatomic Particles: Traveling to the Unseen" - with the primary goal of analyzing and perfecting gameplay in high school students. Applied in principle at the João Tibúrcio State School of the regular school network located in the municipality of Goianinha in Rio Grande do Norte. Aiming the possibility of learning, due to its use in a playful and dynamic way, on concepts of the standard model of the particles. In this work will be made the presentation of the product and how it was used in its application. The comparison between the Pre and the post test will also be made through quantitative analysis. We verify students improve the concepts of subatomic particles after the application of the board game, identifying some of the elementary particles and the existence of fundamental forces. Because of this, we have obtained many positive reports of the use of the educational product through the students, and that it was an incentive to search for more information on the subject in other means of access to knowledge. For this reason it is expected that the work will serve as a parameter for the application of the game in other environments so that more and more people have access to the particle physics contente.

Teaching Thermodynamic principles for high school students is not easy, considering the difficulty of relating the daily life of the learner with academic knowledge in a meaningful way. In order to minimize the difficulties encountered in the teaching of thermodynamics, the present dissertation aims to propose a didactic manual for the creation of a mini portable meteorological station. Through the construction of this experiment it will be possible to study the thermodynamic state variables using Arduino as a monitoring platform. Initially a brief explanation of the teaching of thermodynamics will be presented as well as the techniques used in this work that served to corroborate the proposal of the product. Next, the construction of instruments that serve to make learning meaningful through experimentation and technology will be addressed. Next, the application of the teaching product will be presented at the Agnus Dei Educational Center. Finally, the conclusions of the present dissertation will be exposed, which will explain pretensions to continue the work with the addition of some sensors and it is suggested that this work be submitted to the publication in the journal of Physics teaching. At the end of the paper the reader will find two appendices. Appendix "A" will contain some photographic records of the project. In appendix "B" will contain the manual with the step-by-step construction of the mini portable weather station. This add-on will include a brief presentation of the hardware and software, the electronic connections required for assembly, and the code to give commands to the sensors and the Arduino Uno. With this material it is clear that anyone with computer basics will be able to assemble this equipment. Therefore, the practical and self-developed teaching produced significant results in the teaching and learning process.

We are at all times bombarded by new technologies that allow us many exploits, many
of them unimaginable decades ago. In this scenario, the film industry further enhances
the popular imagination by displaying, for example, hypothetical interactive holograms
through science-fiction films and superheroes. In addition to the cinemas, we can also
mention the holograms in several other scenarios (awards events, marketing and
electoral campaigns, music shows, among others), some of which use devices
commonly known as "holographic" pyramids. These pyramids can provide the clear
impression that the viewer is observing a real and tangible object. However, as
discussed in this dissertation, most of these references to holographic images are
mistaken, that is, in addition to not being holograms in fact, they are just twodimensional
images. This can generate excellent educational opportunities for the
debate on the themes of optical illusions and holograms, especially when we consider
the transition from the naive curiosity of the individual to an epistemological curiosity.
In this way, we developed an educational product through a didactic sequence for the
introduction to the study of optics in elementary education. We take as a starting point
the construction of a quadrangular "holographic" pyramid and investigate its physical
principle of functioning. The didactic sequence was structured according to the three
pedagogical moments (initial problematization, organization of the knowledge and
application of the knowledge) developed by Demétrios Delizoicov and that have freirian
educational bases. Through the application of the didactic sequence, we show the main
results, obstacles, expectations and generate the final educational product including
suggestions of applications in the other levels of schooling. Among the results achieved,
we highlight playful aspects identified in the "holographic" pyramids that favored the
introduction of basic concepts of optics and mathematics in elementary education, as
well as immersion in several factors of scientific construction, such as the formulation
and verification of hypotheses and the collection and interpretation of data.

In the last decades, there has been a consolidation of the defense of the didactic insertion of History and Philosophy of Science. Following this trend, textbooks have included in their scope some historical elements related to scientific content. Despite the intention to meet the demands of educational legislation in terms of historical contextualization, the lack of criteria and attention to the historiography of science ends up giving way to an inadequate insertion of historical-philosophical elements. These misconceptions translate, for example, into the formation of simplistic views about science. In this sense, the analysis of the content related to Torricelli's experiment in textbooks revealed several flaws and distortions. Based on the inadequacies observed, and on the other hand, based on reliable historiographic texts, three historical-philosophical narratives were developed for use in Basic Education. These narratives, which focus on the historical development of the concept of atmospheric pressure and, in particular, the Torricelli experiment, are part of a didactic sequence elaborated in order to collaborate with the teaching of the mentioned scientific subjects. The educational product was applied in regular high school classes in Natal public school, where it was satisfactory in relation to the desired teaching objectives.

In the last decades our society has got an important change in relation to scientific and technological advances. However some of our students get advantage from these technological advances unconsciously and do not associate these to the knowledge acquired at school. Triggering Automatically a  motor or lighting system and turning solar energy into electricity are examples of technological processes that are trivial in our students' daily lives. However, the 21st century school should not ignore the new challenges proposed by this new world configuration, so the teacher has the duty to develop habits and attitudes aiming an approximation between the school and the social and technological development in which the student is included. Therefore, the educational product constructed by the teacher in this work aims to associate content and daily in relation to the technological use of the photoelectric effect in the 21st century. The application of this product occurred in a high school first year class  through four classes of 50 minutes. The first two classes happened through an expository and dialogical way, emphasizing the historical and algebraic part. The other two classes happened according to a didactic sequence based on the three pedagogical moments developed by Demétrio Delizoicov, which added using  an interactive and dynamic way in the construction of the relation between the expository class (concept approached) and the use of the didactic tool (daily application ).