1. Introduction
There has always been a conception in the collective imagination concerning the intelligence of human beings. This conception has always been related to logical or rational thinking, thus encouraging contempt for that which does not have some logic or rationale. This philosophy empowers all disciplines that work on positivist methods to search for knowledge. We have worked to establish and naturalize this, leaving aside any viable alternative that does not conceive intelligence only from a rational perspective. For this reason, the school system has been responsible for generating a division between reason and emotion, where art has ended up being cataloged within the world of emotions, and science, in this case, mathematics, in the world of logic and reason. In this way, both art and mathematics have been harmed, excluding any rational conception in art and any kind of emotion in mathematics [
1].
For Zalamea [
2], the isolation of different branches of knowledge has resulted in losing sight of reality, the world, and the universe as a whole. In this sense, Max Neef [
3] also states that knowledge is fragmented, which does not allow for a complete vision of reality. The socio-historical need to establish links between the different disciplines has led to a transition from the unidisciplinary paradigm. A plurality of worldviews has been revealed that seeks to give provide answers to reality from multiple perspectives. When establishing a dialogue between science and art, it is necessary to transcend traditional ideas about how knowledge is generated in both disciplines. The confluence of emotion and reason—art and science—encourages human beings to believe and express their most intimate thoughts and feelings. In addition, these forms of expression lead others to do so, or at least to understand and feel their thinking and affectivity [
4].
The transition to a multidisciplinary paradigm reveals the need for research in which an expanded vision of education and knowledge is considered. This perspective values the cognitive and emotional capacities to exercise a genuinely transformative role in society, where the human being is conceived as a totality integrating reason and emotion, enabling various ways of reading the world. The present investigation explores the relationship between art and mathematics. The main objective is new forms of knowledge framed by the creative act through experiences generated in the dialogue between art and mathematics.
2. Art and Mathematics
Art has generally been associated with the domain of the aesthetic, the emotional, and the sensory. On the contrary, mathematics has, through the years, been associated in the domain of the logical–rational, precision, and truth [
5]. It is necessary to understand that throughout history, the two disciplines have been more united than many might consider. Many characteristics believed to be antagonistic prove to be more convergent than divergent.
Oostra [
4] suggests that this intimate and seductive relationship between the two disciplines has been full of nuances. When intermingled, math and art have given way to the creation of infinitely new ways of seeing, feeling, explaining, and thinking about the world, nature, the universe, and reality. The creative process, intuition, and emotions commonly related to art play a fundamental role in mathematical thinking. Conversely, structure, perspective, geometry, and arithmetic have been used by artists, consciously or unconsciously, when creating their works. Although Descartes proposed from his duality theory that the emotional and the rational are separate, the languages from art and mathematics are perfectly articulated.
Seen from many dimensions, as proposed by Bejarano-García [
6], it is possible to approach art through mathematics and vice versa. In its infinite dimensions, both art and mathematics provide commonalities facilitating an internalization of concepts and abstractions. This approach can be found in music, painting, sculpture, dance, architecture (considered one of the fine arts), and literature.
In the dialogue between art and mathematics, Leonardo Da Vinci pioneered the use of perspective in his works. Later, the mathematician Desargues managed the first work on projective geometry for artists, which was considered as universal geometry until the arrival of topology. Many examples of this dialogue can be found from different characters throughout history, and it has been possible to observe a trend in which people dedicated to mathematics usually tend to be dedicated to art in one of its multiple expressions. For example, the mathematician Charles Lutwidge was also a writer and photographer. Felix Hausdorff, a founder of topology, was dedicated in youth to literature, and Colombian mathematician Otto de Greiff was a music lover. In art, people have used mathematical concepts consciously or unconsciously [
4].
Mariño [
7] mentions the mathematical concept of symmetry as one of the most obvious links between art and mathematics. In addition, symmetry emphasizes the aesthetic criteria as a fundamental point in the dialogue. Mariño highlights some of the renowned artists in whose works the relationship between art and mathematics is evident, such as Abbot, Dalí, and Escher. Carlos Vasco also focused his interest on the relationship between art and mathematics. In an article, Vasco expressed the relationship in four fundamental sections: art as mathematics, mathematics in art, the art in mathematics, mathematics as art. The central thesis in Vasco’s work is that one must be a mathematician to discover creativity [
4].
3. Dialogue between Art and Mathematics at an Educational Level
The possibilities that art can offer at the educational level have recently gained increasing attention. One of the movements supporting this interest has been the science, technology, engineering, art, and mathematics (STEAM) movement, which has emerged as an initiative supporting the incorporation of art and design into the learning of traditional STEM disciplines [
8]. One of the main objectives in integrating the arts with the other disciplines is the promotion of knowledge transfer between different fields to increase students’ academic performance [
9,
10].
Many studies have validated from various perspectives the advantages and possibilities offered by art in education. For instance, Palacios [
1] offers multiple arguments that conceive in art a possibility to generate new ways of seeing the world. Luis de Tavira [
11] also defends the possibilities of art at the educational level and how it can broaden views on diversity. As expressed by the author, art opens the conception of inclusion to a much broader meaning: diversity. Through art, it is possible to achieve education for and from diversity, where all the factors that generate heterogeneity are considered: each difference, each interest, and the singular motivation of each student in the classroom.
Parra [
12] also proposes the advantages art offers in education. The author emphasizes that one can strive for critical training of school subjects through art, whose students then go out to play a transformative role in society. This benefit is one of the many possibilities that art offers. By attending to interiority and accounting for personal context, individuals might be able to question themselves, their world, and their reality. Parra considers that individuals can attend to the deepest part of their being, feeling, and thinking with art. Through art, this reflection offers possibilities to formulate critical subjects with a view toward a true social transformation, which is vital in these times of technological revolutions where human beings ultimately illuminate the path.
In the field of education, efforts have been made to establish a dialogue between art and mathematics. Various investigations have been carried out over the years that, in one way or another, have achieved an approach between both types of knowledge. Generally, this approach has been based on finding a method for independently enhancing one of the two disciplines, using one as an instrument of the other. In this way, the relationship cannot be understood as a dialogue between knowledge if one discipline is highlighted over the other.
At the Latin American level, there is currently a great concern because students are not acquiring the necessary knowledge in the areas of science and mathematics to be able to achieve productivity in their lives and ensure future work in the fields that have emerged from the development of the new technologies. When reviewing the results obtained by Latin American countries in international tests, it is evident that in most cases, the students are below the international average. For example, the PISA (Program for International Student Assessment) test assesses skills in mathematics, sciences, and reading. The particularity of this test is that instead of assessing the concepts that the students have learned from the school curriculum, it assesses how prepared students are for life after school [
13].
In the results obtained by the Latin American countries in the PISA 2018 test [
14], it can be seen that all obtained scores below the average in the areas of science and mathematics. On the other hand, Chile, which is the country that obtained the best Latin American results in the PISA 2018 test, was the only Latin American country in the TIMSS test (Trends in Mathematics and Sciences Study). This country was ranked among the countries with the worst results in the areas of science and mathematics, obtaining results similar to those obtained by countries such as Kosovo, Montenegro, Armenia, Morocco, Bosnia and Herzegovina, which have lower GDP per capita than Chile. If this situation is extended to the rest of Latin American countries, the situation found may be much more complex. These poor results obtained by countries such as Colombia, Mexico, Venezuela, Bolivia, etc., are due to a complex network of general situations in the region which are specific to each country, which would require a much more in-depth and detailed analysis. What can be evidenced is the need to seek alternatives to improve the results obtained, not only in terms of scores, but in terms of obtaining meaningful knowledge for life and to face the challenges that the future holds [
13].
Regarding Latin America, several studies [
15,
16,
17] have been carried out in Brazil in the field of education regarding new alternatives and methodologies establishing a relationship between art and mathematics. However, as mentioned earlier, this dialogue has not progressed from being an instrumentalization of art in favor of mathematics. In research conducted by Zago and Flores [
18], the relationship between mathematical education and art was studied. In this case, the study focused on analyzing how one could contribute to the teaching of geometry from art. The authors examined the required mathematical knowledge and the development of aesthetic and visualization skills from an artistic perspective. As a result, it was concluded that the two areas could be mainstreamed through the exercise of thought, considering mathematics as an essential element in creating and contemplating art.
Santos-Luiz et al. [
19] conducted a systematization of the connections between mathematics and musical content. Musical content was divided into music theory and analysis, acoustics, and musical composition. In the study, existing associations with mathematics were systematized in each of the themes. The methods considered the programs and achievements of mathematics in the population under study, namely elementary school students and students between 11 and 12 years old belonging to a secondary school. The results indicated that musical elements and concepts related to mathematics were distributed in arithmetic, algebra, trigonometry, and especially geometry.
At the Nove de Julho University in Sao Paulo, Brazil, an investigation was carried out, the main objective of which was to present the concept of a fractal pattern and its potential in the teaching and learning of mathematics [
20]. The research was fundamental to the idea that both mathematics and the arts are linked to human activities, with expressions derived from intelligence, desires, ideas, and representational needs. The findings revealed that visual aspects relating art to mathematics can be contemplated from the exploration of fractal patterns.
In Colombia, Zuluaga-Arango and Pérez [
21] applied a series of strategies designed to favor, through the arts, the teaching–learning processes of students from the San Carlos de La Salle Institute. The study sought to show the possibilities for mediating the teaching of mathematics through the plastic and performing arts. In this way, students can approach mathematical knowledge from less instrumental and operational positions, obtaining better results in the development of competencies.
Brooke and Nemirovsky [
8] conducted a study reinforcing the arguments necessary to integrate the arts into math courses. The investigations that support these arguments are limited and complex, as it is difficult to find an instrument that can offer a measure of creativity. The study evidenced that additional perspectives were needed in favor of the integration of the arts into the teaching of mathematics. It was found that by creating works of art inspired by mathematics, students were able to combine mathematics into a wide range of life experiences, discovering situations in which mathematical research was encouraged, and changing attitudes toward a more artistic perspective.
Finally, Boruga [
22] worked to reveal the impact origami can have in the educational process concerning behavior and learning. From a behavioral aspect, it was evidenced that students became friendlier and developed more patience and energy to carry out their activities. From a mathematical perspective, it could be demonstrated that logical thinking was enhanced in the students, consolidating in them some mathematical notions, especially geometric ideas. In addition, a better understanding of concepts such as fractions, shapes, and angles was reached by using mathematics in a different context, becoming a meaningful and pleasant experience for students. From an artistic perspective, it was found that students improved their aesthetic sense, creativity, and sensitivity to art, learning an appreciation for the work required to create something and, therefore, to value art.
Internationally, Sánchez [
23] conducted a study based on geometric software, analyzing various paintings using dynamic geometry. Field [
24] proposed some ideas on how mathematics can be seen from an artistic perspective, thus becoming a significant process in teaching math. In this way, Dietiker [
25] proposed that challenges in the current educational model can be addressed from an art perspective. By considering assumptions, values, and visions of mathematical education, Dietiker sought to theorize mathematics as an art form, framing it in narrative terms to inspire a rewrite of mathematical experiences in students. Thus, the perception of mathematics was suggested as an art form where teachers and curriculum designers can renew views of math and avoid using the same methods.
5. Creativity and the Creative Act
Creativity is a concept that has been generally associated with artistic ability or searching for answers or solutions for a situation considered to be a problem. Creativity is influential as it draws from art and science to guarantee the emergence of ideas or solutions to problems at individual and societal levels [
30].
Jaime Parra Rodríguez and Carlos González Quitián represent two of the most influential Colombian authors who have performed different creative processes focusing on how they relate to cognitive processes. For Parra [
12], creative cognitive processes are operations of thought based on scientific achievement and the joy of the aesthetic. In this author’s conception, a framework can be observed that relates a creative process to the aesthetic and the scientific, finally demonstrating how that creative act can be a bridge establishing logics of articulation between the emotional, the logical, and the rational.
In contrast, González [
31] maintained that creativity is how reason and emotion intervene in the generation of ideas. This intervention generates actions that spark transformation, which is framed by the formation of the person and their interaction with culture. In this way, talent, knowledge, culture, and emotions are homogeneously merged in the creative act, each one forming a mixture in perfect harmony so that social transformation is reached through creativity. Finally, González [
31] incorporates some of Vigotsky’s conceptions regarding the creative act. Within these conceptions, it is considered that the imaginative function is the foundation of the creative act. In addition, experiences that have an emotional impact on the person are directly proportional to the richness of the creative act.
5.1. Max Neef’s Creative Act
Manfred Max Neef proposes from his perspective what the concept of a creative act reveals. For Neef [
3], science can only describe, not understand: “We know a lot, but we understand little or almost nothing”, therefore, “science has separated us from the world to know more about it, taking an attitude of observers, of spectators of a reality that does not touch us”.
From Roger Bacon and René Descartes, the ability to act locally and fragment reality is consolidated. According to this conception, fragmenting reality helps to better comprehend the world. For Neef [
3], the human being went from being someone who integrated everything to fragmenting each of the things that make up a person’s reality. To solve a specific problem, there is a specific form of knowledge. The fragmented reality is consolidated in the fragmented world, where perceptions are exclusively local and the ability to capture totalities is lost. This fragmentation leads to a refinement of language to describe situations and circumstances. In this process of describing and explaining, knowledge has been increasing and science has begun to be executed.
Analyzing the approaches of Bejarano-García [
5], when viewed from the intention of understanding the world and reality, one begins to understand that rather than seeking solutions to problems, one must transcend towards transformations of which one must be a part. Only that which can be integrated can be understood.
For Max Neef [
3]: “… a person may have studied everything that can be studied from a theological, sociological, psychological, biological and even biochemical view of a phenomenon that is known by the name of love. That is, the person is an expert on the subject of love who has written books and delivered lectures, knowing everything that can be known on the subject of love. However, that person will never understand love unless they fall in love. Understanding love is not something that can be learned; it is something that can only be lived. No one can understand pain if they do not suffer, even if it has been described in a thousand ways …”
Thus, you can only understand what you are part of, what you can integrate with, and what you can penetrate deeply. In this way, it is possible to begin to understand the creative act as understanding the world and the reality of which one is a part. This understanding is where the creative act begins. In this way, transcending, explaining, or describing reality allows you to enter it, enabling its integration and compression. The process is about moving from doing to being. This transition, according to Manfred, is the essence of the act of creation. In this sense, Max Neef [
3] considers that the creative act begins when one is part of, when something is deeply penetrated, with love, that is, with the desire to want to be synergistically empowered with it.
5.2. The Act of Creation in Art and Mathematics
From the perspective of mathematics, creativity is commonly related to offering viable solutions to a problem. That is, the strengthening of creative abilities in mathematics is linked to confrontations with problems and their subsequent resolution. For creativity to flourish in mathematics, it is necessary beforehand to have a minimum amount of knowledge on how the awakening of creativity is being sought. The creative act in mathematics proposes that there must be a communion between logical thinking, intuition, deduction, and induction for creativity to arise. In this generation of creativity, it is imperative to keep in mind that creativity does not occur when the path to be followed is shown. If the path were known, one would reach something that was already expected.
The artist Marcel Duchamp proposed a definition of the creative act from the perspective of art. For Duchamp [
32], the creative act is closely linked to the aesthetic level, where the artist goes from the intention of his work to the realization through subjective reactions of which he is not aware. With the symbol, the viewer can interpret the internal qualities, the essence of the work, which the artist has tried and managed to unconsciously express from an aesthetic level.
From the conception of Zalamea [
2], when considering creativity, it is necessary to refer to the cahiers of Paul Valéry. The notebooks proposed multiple considerations about creativity not only in art but also in various fields of knowledge, mainly mathematics and the natural sciences. In scientific and artistic fields, reason, intuition, mind, body, reality and imagination are involved, becoming vital in the processes of creation [
4]. In this sense, Piñón [
33] argues that spaces are created and recreated in both art and science, building an oasis overnight. For this reason, they are interdependent. Both fields use creation, intuition, and imagination.
From the perspective of emerging inventiveness, the creative closeness between art and mathematics is endorsed from a formal, dual and reticular point of view within the general modes of knowledge [
2]. Both artists and scientists experience creative acts in relation to aesthetic quality. In this way, both perform an artwork, each using the means and particular language the work requires [
4].
6. Art as a Method to Reach Other Forms of Knowledge
When considering art as a method to generate new possibilities of knowledge, according to Alatriste et al. [
34], it is necessary to transcend from the conception of knowledge biased by positivism towards an expanded conception of knowledge. Traditionally, knowledge has been related to science and this has been understood as the search for answers to questions that arise from the relationship of subjects to reality [
4]. Taking a step toward an expanded knowledge paradigm results from instability in the search for answers that represent the discourse of knowledge. This lack of stability can be evidenced in concepts such as the second law of thermodynamics, which speaks of an always conflicting entropy, or in quantum physics, where chance plays a fundamental role in the theoretical foundations of its theories. Mathematics itself suffers from inadequacy by assigning truth to some statements for which it has to resort to internal principles that generate contradictions. For example, the Kurt Gödel theorem, which states that in first-order logic, every formula that is valid in a logical sense is demonstrable [
35].
Following Alatriste et al. [
34], the extended knowledge paradigm searches for something beyond a simple answer to a posed question. From the conceptions proposed by these authors, the expanded notion of knowledge arises from a systemic circuit confirmed by the possibility and the question together with the answer, where the important thing is not the search for knowledge as such, but rather its construction. If there is a conception of expanded knowledge, it is possible to unveil a method by which the knowledge is reached or constructed through art.
Art offers the possibility to consider sensualized knowledge; that is, it is possible to give sensuality to knowledge. More than answers, what is wanted is to achieve possibilities and questions by accommodating a new epistemic device [
34]. As stated above, it is vital to clarify the need to cease considering art as an exclusive member of the emotional space and sensations, thus discarding any rational process in art or even thinking that rationality is harmful to the artistic exercise. From this viewpoint, art is given a value, both from emotion and reason, to consider new forms of knowledge that can be approached [
5].
Although art is called upon to conceive knowledge framed within positivism, it is also possible through transdisciplinarity and post-disciplinarity measures to mutate the different ways of thinking and challenge society’s problems from different points of view. Breaking disciplinary barriers and eradicating limits between the disciplines reveals new forms of knowledge through diverse ways of creating art [
36].
The misconception embedded in the collective imagination that emotion and reason are separate has been seen since the early 17th century in the Cartesian paradigm of duality, where reason and emotion cannot share the same path. It is here that reason is established in the field of knowledge and emotions in the field of art, which almost makes them appear to be contrary and opposite. This type of thinking has taken root in the collective imagination, becoming a powerful idea that, due to contemporary political and economic models, has permeated education. The emotional is seen as something of second-order importance compared to the rational. These types of ideas are improperly considered and perpetuated by social, political, educational, and cultural institutions [
26].
In this research, a dialogue between art and mathematics is proposed. Through the creative act as a meeting point, new forms of knowledge can be established that entail, as Neef [
3] maintains, an understanding of the world. In this dialogue of knowledge, it is not intended for art to be an instrument of mathematics or vice versa. In this sense, it is essential to clarify that the main objective of this work is linked to showing how, through this articulation, it is possible to give way to an expanded paradigm of knowledge [
34]. In this manner, emotion and reason play a fundamental role in achieving the creative act, thus generating a complete vision of reality not fragmented by positivist or rational ideas. In this way, this research aims to analyze and interpret new forms of knowledge that arise from the creative act in the dialogue between art and mathematics. The subjects for analysis include 10th- and 11th-grade students in the José María Obando Rural Educational Institution of the municipality of Fredonia, Antioquia, Colombia.
7. Methodology
The present qualitative research aims to analyze and interpret experiences acquired during the proposed creation process from the dialogue between art and mathematics. The method occurred in three moments: Moment 1: introduction to art and mathematics as “ways of doing art”. Moment 2: collective experimentation, and Moment 3: re-signification of education as a model of experience. For this analysis, art emerged as a possible approach to the knowledge of how another discipline is generated, in this case, physics, mathematics, and art itself. From the present investigation, art as a method is the way each participant constructs meaning and approaches knowledge based on the subject’s particular experience.
Art is also the image of a way of thinking that can be understood as a record of thought. This means that art is a means of representation not only of ideas and philosophies but also of knowledge and ways of relating to the world. Art provides ways of thinking and imagining things, becoming an emergence of values, techniques, knowledge, and habits of thought still prevalent today [
18].
In the first stage of the investigation, an initial diagnosis was made considering various characteristics that participate in the proposal about the population.
7.1. Participants
Sixteen students from the 10th grade and ten students from the 11th grade of the José María Obando Rural Educational Institution were selected for the project. The ages of the students in both grades ranged from 16 to 19 years old. This selection was made considering the hourly intensity in the area of physics and mathematics and previous knowledge in mathematics and physics.
Moments 1 and 2 were carried out with the 26 students of the 10th and 11th grades, and Moment 3 was carried out with six students who voluntarily decided to participate.
7.2. Initial Diagnosis
The José María Obando Rural Educational Institution shows from its academic guidelines and curricula a traditional educational model where mathematics and linguistics taught is prioritized, focusing on obtaining good results on the SABER 11 tests (similar to PISA tests). This emphasis shows evidence of a positivist model in science courses that prioritizes a rational perspective in science teaching. This focus leads to the exclusion of other types of expressions that can generate new possibilities in the teaching–learning process. Therefore, emotion, experience and the senses have come to play a secondary role in the educational teaching–learning process of this institution.
An observation was made of the context of the institution and its educational community. It was found that both the institution and its students belong to a rural context, where coffee is the most important product of the local economy. The educational institution has based its educational model in a rural context, attempting to propose a multidisciplinary curricular approach framed in the learning of the different processes involved in the elaboration of roasted coffee beans and ground, and in different products derived from coffee.
An analysis was made of the academic conditions of the students in the areas of science, specifically in physics and mathematics. This analysis sought quantitative data regarding the students’ academic performance. One of the researchers in this study was the mathematics and physics teacher of the students who participated in this study. In this way, through the quantitative and qualitative performance of the students throughout the classes and the different activities carried out in them, it was possible to determine that there was a heterogeneity in relation to the academic performance in these areas. In this way, it was possible to achieve the study characteristic that all participating students presented a diversity in terms of affinity to mathematics and art, and in terms of the level of academic performance in both areas as well.
In addition, when selecting the group of students to conduct the different activities proposed, an analysis of the diversity present in this sample was carried out. The needs, differences, and potential of each student were considered. These data identified how it was possible to work on diversity from the arts and their multiple expressions.
Finally, the institutional educational model and the institutional educational project (IEP) were reviewed. With this information, it was possible to identify that the institution operates a “humanist” educational model. From the theory, the model considers the formation of sensitive, critical and conscious citizens. In practice, however, this goal is not evident. For instance, science courses (mathematics, physics, natural sciences, chemistry, technology) are generally considered logical and rational. Therefore, the subjects are disconnected from the social, the sensible, and the “human”. This emphasis on the rational can also be observed in the place given to art within the IEP. Art, which people generally teach without knowledge or experience in the subject, is seen as an area with a secondary role in student development.
7.3. Moment 1: Introduction to Art and Mathematics as Ways of Doing Art
In the first moment, the students were contextualized regarding the ways of conducting art and mathematics. The objective of this contextualization was to show students different mathematical and physical concepts from a technical and theoretical point of view that would ultimately give rise to the articulation between art and mathematics. These “ways of doing” were made known through formulas, laws, or theories. In principle, the theories were framed in a logical-mathematical or technical language at an artistic level. These theories were transformed to show that art does not impose an absolute truth from a rational paradigm and from what is considered to be fine art.
The concepts developed to introduce ways of creating art were a simple pendulum, centrifugal force, symmetry, sequences, vibrations, proportions, electricity and renewable energies, plane and spatial geometry, addition and multiplication, and measurement. These concepts were presented from a theoretical perspective through a traditional masterclass. Some of the concepts used during the first moment are shown below.
7.3.1. Simple Pendulum
The pendulum is a physical system composed of a mass suspended from a fixed point by wire or rope, with which it is possible to measure time, the intensity of gravity, and more. Equation (1) governs a simple pendulum motion for small-amplitude oscillations, where
is the period of oscillation,
is the length from the fixed point to the suspended mass, and
is the acceleration of gravity.
7.3.2. Centrifugal Force
In mechanical physics, when a body is in motion in a rotational system, it experiences a force that ejects it from the system in the opposite direction to the axis of rotation. This force is associated with a body of mass
m, in a rotation system with angular speed
ω, and in a position
r concerning the axis of rotation. Equation (2) expresses the magnitude of the centrifugal force that a body experiences under these conditions.
7.3.3. Chladni Plate
With the Chladni plate, it is possible to study the standing waves generated by mechanical excitation on a square plate. The vibration modes of these plates can be visualized in two dimensions. Depending on the excitation frequency, the vibration modes of the plate will vary, creating pressure zones and acoustic shadow zones within the plate. According to Chladni’s Law, the vibration frequency of a circular plate is demonstrated by Equation (3), where
m and
n are the number of radial and non-radial nodal lines, respectively, and,
C is a constant that depends on the properties of the plate.
In addition, for a square plate, the wave equation must be solved in two dimensions, where the boundary conditions imply an antinode. The resonance frequencies are obtained using Equation (4), where a is the dimension of one side of the plate,
v is the speed of sound propagation on the plate, and
m and
n are the horizontal and vertical nodal lines, respectively.
7.3.4. Symmetry
Symmetry can be defined as a feature of geometric figures, equations, systems, and material objects, among others, in which transformations or movements occur with no variation generated. The concept of symmetry can be found in the fields of geometry, physics, art, chemistry, and biology. For the present work, the concept of symmetry was taken from a geometric perspective in which, at each point of a figure, another point corresponds (
Figure 1). This situation represents the concept of axial symmetry, where an internal or external axis can be provided to the figure, and the type of symmetry can be an injective or surjective function. This type of axial symmetry can be seen in the figure, where images A’, B’ and C’ correspond to points A, B and C, respectively, and e depicts the axis of symmetry.
7.3.5. Successions
Sequences are ordered sequences of numbers that respond to a general term, with which each of the terms in the sequence can be determined. In this way, there are an infinite number sequences that vary according to their general term. For example, to express the sequence of odd numbers, the following equation is used, where
is the general term of the sequence,
is positive integer, and
is a natural number.
7.4. Moment 2: Collective Experimentation
A review of background and information from various sources of literature and the internet reveals activities and approaches carried out to investigate and test different forms of articulation between art and mathematics. For this study, activities from the literature were transformed and adapted according to the students’ needs to provide feedback for each of the experiences during this stage of experimentation. From the experiences collected during the experimentation stage, a series of activities were designed in which the dialogue between art and mathematics was established through art as a method. Students had the opportunity to understand these methods of doing and were able to venture and be part of a construction and aesthetic experience from a logical and emotional perspective.
The activities were carried out for two weeks using the class hours of mathematics, physics, and art. This amounted to approximately 22 h of total work during the two weeks. For each of the proposed activities, the necessary materials were obtained beforehand and provided by the researchers in charge, the students, and the educational institution.
7.4.1. A Simple Pendulum as a Method of Doing Art
In this activity, the physical concepts that are part of the pendulum movement were worked on. The students built a device with a part of the body of a plastic bottle, which was drilled in the lower part for the exit of paint. The bottle was attached to a rope in the upper part in such a way that the weight of the pendulum (device and paint) would be evenly distributed. This device was attached to the ceiling of the place where the activity was conducted, seeking to make it remain in the geometric center of the space. In addition, the installation was made with an option to vary the height. Canvases were placed on the ground of the measurement site just below the pendulum position so that students could create different patterns by experimenting with the different proposed physical concepts.
During the activity, the students had the opportunity to vary the height, weight (mass of the volume of paint added), and the initial position from which the pendulum was thrown. Through the patterns achieved, students were able to observe and feel what happened when the different parameters of the experiment were modified. Students also achieved the creation of works of art and unique patterns through the experiences.
7.4.2. Chladni Plate as Art
For this activity, the physical concepts of sound waves and vibrations on rectangular plates were worked on. Students built a device that allowed the transmission of vibrations generated by a loudspeaker attached to a rectangular metal plate with a thickness of 0.5 mm. The loudspeaker was connected to a power amplifier, which, in turn, was connected to a mobile device serving as a frequency generator, either by playing music, or by playing pure tones at a specific frequency using Frequency Generator by KingZ Apps (available for free on Google Play). The amplifier’s power was adjusted so that the vibrations generated on the surface of the loudspeaker had the necessary energy to be transmitted to the plate using a cylindrical object connected both elements.
During the activity, students experimented with various electrical output powers of the amplifier and different wave frequencies emitted by the loudspeaker. With the help of fine sand on the metal plate, it was possible with different frequencies to check the patterns formed with the sand on top of the plate. In this way, the students showed areas in the patterns in which the sand did not accumulate and other areas in which it did. Thus, they were able to check the resonance modes of this particular plate for the different excitation frequencies and observe the artistic and physical significance of what they were experiencing.
7.4.3. Geometric Figures Built from Proportions as an Art Method
In this activity, a Tangram was built according to indications of the proportions and measurements that each of the seven figures that comprise the traditional Chinese game should have. The instructions were initially given so that students had to report the measurements of each of the figures according to an initial measurement established by themselves. This measurement corresponded to the sides of the square that can be built with the seven figures of the Tangram. The students were guided in the design of each figure based in the proportions of the total square. With these prompts, the students were finally able to build their own Tangram.
During the activity, the students experimented with different geometric constructions to create different figures and verify that regardless of the figure created, the proportions between the elements used and the total area of the figure were always preserved.
7.4.4. Centrifugal Force as an Art Method
In this activity, a device was built through which the concept of centrifugal force could be experienced. For this, an electric motor was used, which was configured through an external circuit to vary the input voltage, and thus, the RPM of the motor. In this case, a 9-volt motor was used, and a 3-, 6- and 9-volt selector circuit. A compact disc (CD) was anchored to the motor, which would rotate each time the motor was activated. The CD served as a base to position the canvas, which was experimented on with the help of paint.
During the activity, the students were able to experience how the centrifugal force acted on the mass of paint added to the canvas. By varying the angular velocity through voltage, the amount of paint added, and the position on the canvas on which the paint was being added, they demonstrated through their artistic creations the effect that all the variations made on the centrifugal force generated.
7.4.5. String Art
In this activity, the concepts of sequences, patterns and a solution of equations could be developed. Each student drew a circle on a rigid table that had a predefined number of points equally distributed. Students were listed in ascending order starting from zero to the amount of initially established numbers. For this, the students had to use different instruments such as the protractor, the compass, and the ruler to meet the established design criteria. After this, the students were instructed to decorate the circle with a design chosen by them, and to stick tacks in each of the equidistant points on the circumference. Having this part of the activity ready, each student was given a sequence using an equation and rope. Starting from a position established as zero, students had to find the next number holding the string in the tack corresponding to the number found.
Each student created a different pattern during this activity since each had an equation and several points on the circumference. In this way, different patterns could be created with the strings. By sharing their own experiences, students were able to mathematically demonstrate that their patterns were different from their peers.
7.4.6. Solar Vehicles
In this activity, concepts related to electricity and solar energy were worked on. Students learned about the construction of series and parallel circuits and the handling of different instruments to manufacture and measure the circuits. From art, concepts such as points, lines, surfaces, perspective, and geometry, served to aid in the design and construction of scale cars and elements related to the test track where they were used (planes, ramps, obstacles, etc.). From mechanical physics, the students were able to carry out different tests and put into practice concepts related to uniform rectilinear motion and uniformly accelerated rectilinear motion. The scale vehicles were built with homemade materials. The solar panels and elements such as resistors, capacitors, switches, among others, were delivered by the researchers.
In summary, art was used to approach the forms of knowledge that could be unveiled from the creative act in the dialogue between art and mathematics.
Figure 2,
Figure 3,
Figure 4,
Figure 5,
Figure 6 and
Figure 7 show some of the processes and results for each of the activities.
7.4.7. Experiences Achieved during the Activities
For Parra [
12], the creative process is based on an aesthetic and scientific achievement, which would not have been possible without the students having notions of art and science before starting. In this same sense, Neef [
3] proposed that to understand something, it is necessary to be able to integrate with it, which is impossible without prior knowledge of what one wants to understand.
Everything mentioned above in the creation process generated during each of the activities led to the emergence of this inventiveness. According to Zalamea [
2], this inventiveness is where the creative act is experienced and where each student executed their work considering their own resources, languages, and experiences. In this way, the dialogue between science and art experienced during each activity evidenced how the reason, intuition, mind, body, reality, and imagination of each student intervened in each of their creations.
To consider art as a method for opening new forms of knowledge from the exercises, it is necessary to consider Alatriste et al. [
34]. That is, the achievement of an expanded knowledge through art is related to systemic, relational logic in the constitution of the Lacanian Subject. This knowledge passes through three spaces in the process: the real, the imaginary, and the symbolic [
37]. When traveling through these three spaces, namely ontological, mobile, and relative, it is possible to conceive of an expanded knowledge through art analogous to the constitution of the Lacanian Subject. Within these, Alatriste et al. [
34] affirmed that the real is a qualitative experience mediated by the symbolic, while the imaginary is neither expressible nor communicable. The imaginary represents internal worlds with high doses of emotion, which is expressible but not communicable. Finally, the symbolic as the space of codes allows for the recognition of a stable world based on the context of knowledge as a communicable discourse.
It is now necessary to understand how these three spaces work when considering art as a method to approach the possibilities of an expanded knowledge when mobilizing for them. The space of the real is shown as a fissure space that generates the need to transform an experience into imaginary or symbolic events. In the space of the imaginary, a world emerges through the processes of creation that goes from a mental image to a material image in the abstraction of reality, shaping a possible construction of knowledge. In this space, which is strongly mediated by the emotional, “the original trauma of confrontation with the real is transformed into mythical worlds” [
34]. Finally, a mediation is seen between the qualitative of the real, the affective of the imaginary, and the legal of the symbolic in the symbolic space. In this space, the other two spaces are transformed into thoughts that resignify a shared experience. This gives way to a new form of expression that comes from the most intimate knowledge of the subject reflected in the construction of new forms of knowledge.
Expanded knowledge through art as a method can then be outlined by a triadic systemic phenomenon that travels through three spaces: the real, as an invoicing quality that is also generating; the imaginary, as an intimate and internal affective experience, and the symbolic, as a representative and plot experience. This is the process of building knowledge from an expanded perspective through art as a method or vehicle that leads to its achievement. Note that, as proposed by Alatriste et al. [
34], this construction of new forms of knowledge is neither definitive nor more real or true. These new forms of knowledge are simply different: experiential knowledge built in the creative act. Through art, it is possible to build an episteme generating its own knowledge grammars.
This type of knowledge should be understood not as the discovery of stabilized laws that demarcate and characterize reality with answers to fixed questions, but as a way of relating to the world from an understanding of what is finally obtained with the creative act. A knowledge of this type becomes something significant and representative in the context of the subjects, proving to be a range of possibilities rather than positivist realities. In addition, this knowledge cannot be proposed as absolute, definitive, or verifiable [
34]. This is a crucial aspect to consider as what we propose in this research urges the recognition of new forms of knowledge from the multiple forms of interpretation and representation of reality that can occur when establishing a dialogue between art and mathematics. Through aesthetic experiences and events that involve reason and emotion in a recursive dynamic, the creative act is opened, reaching the possibility of understanding the world from a kaleidoscopic perspective where reason and emotion interact in a complex way toward a new vision of reality.
In general, knowledge relies on a corroboration given by its own validation instruments, which only shows verification of it based on its own beliefs. What it offers is an unfinished condition of knowledge, which implies that the conception of this expanded knowledge given by Alatriste et al. [
34], and taken in the present work as sustenance and argument in the proposal of art, as a method in the dialogue of a diatopic type between art and mathematics framed in the creative act. This type of knowledge is a generator of creativity, where art is the space in which it develops (as a method). This call for expanding knowledge makes these new forms of knowledge conceive questions rather than answers, reveal possibilities rather than facts, curiosity, and searches rather than encounters. When considering the creativity generated from this type of knowledge, the category of the creative act or creative act considered in this investigation is considered as the main bridge in the dialogue between art and mathematics. In this way, the knowledge that is generated from art as a method and in which the creative act is given, transcends three spaces in which every form of relationship with the outside is a process of generation of meaning that occurs in the convergence of these spaces. Thus, the first space is defined by an affective experience that generates the creative process or act; the second space is defined as the production of an object that fulfills a representative purpose; the third space is defined as the thought that gives meaning and offers a symbolic discourse of it, where it is possible to share the experience and ideas that make sense.
9. Conclusions
The human being, in essence, abstracts and expresses his reality through the instruments he finds in reason and emotion. In this way, a complete vision of reality is generated that yields a true understanding of the world. Through art, diverse possibilities for teaching and learning emerge for spectators, students, and teachers. Moreover, teaching enables instructors to learn from their pupils, which is one of the great potentials of art at the educational level. The key is to bring students to aesthetic enjoyment and enjoy the experience of searching for knowledge. No real or transforming learning is possible without emotion.
If educators strive to strengthen the dialogue between emotion and reason as a generator of transformative knowledge that leads to a real understanding of the world, the possibility of aesthetics will be opened as a pedagogical tool. It is through this process that, for the present work, the relevance of using art is sustained as the same method by which new forms and possibilities of knowledge are reached. Art as a method escapes the conditions of time and space, providing students with the possibility to think, feel, and perceive reality and the world without prejudice or conditioning.
This research shows how students were able to experience this dialogue between art and mathematics. During the development of the activities, it was possible to observe how the students assimilated the different mathematical and physical concepts that underpinned each activity. This alternative approach to knowledge allowed students to know, experience, and transcend concepts by understanding, as proposed by Max Neef in his definition of the creative act [
3]. Each student understands concepts from a unique experience; therefore, students cannot be evaluated from a traditional point of view. The same stories collected showed that the students could understand what each proposed activity concerned. In this way, the creative act allowed students not only to know but also to understand concepts. Beforehand, knowing the concepts of mathematics through the traditional method generated bad feelings and emotions. With an art-based articulation, students understand more, as evidenced by good feelings and emotions generated through the dialogue. Reaching forms of knowledge where emotion and reason meet and dynamically interact leads to knowledge that allows the description of the concepts from the particular form of abstraction experienced by each individual student. The result is a profound creative act with the possibility to integrate with the desired knowledge.
On the other hand, although it is necessary to continue with this type of long-term strategy in the teaching of mathematics and science to determine if the results obtained in national and international tests can improve, this does not mean that these alternatives should not be considered when seeking to give students tools to understand the world beyond school. Art has shown to be a way to approach in an alternative way to the knowledge of mathematical and scientific concepts, not in terms of solving a formula or a problem, but moving from a simple mathematical description to a true understanding of how concepts works. According to the above, although the present work was carried out in a very particular context, both art, science and mathematics are universal and fundamental disciplines, and therefore, this study can be applied in different contexts and situations in order to check if there is evidence of a better understanding of the proposed concepts. Currently, further opportunities are being developed where mathematics as a way of making art can be deployed, including different locations, contexts and the number of students involved. It is worth mentioning that, although the strategies considered here can be reproducible, results may vary from different socio-cultural scenarios in which the students usually find their place.