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Investigating Citizens Experience of Public Communication of Science (PCS) and the Role of Media in Contributing to This Experience

Zahra Maher1, Ali Rabbani Khorasgani2, Seyed Ali Hashemianfar3

1PhD in Sociology, University of Isfahan, Iran, E-mail: [email protected]

2Associate professor, Department of social sciences, University of Isfahan, Iran

3Assitant professor, department of social sciences, University of Isfahan,

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As new technologies and science continue to flourish in the contemporary world, one may scarcely spot an area of human life still untouched by science and technology – from medicine and healthcare to arts, cinema and music; from construction and architecture to recreation, leisure and sports – all are closely associated with science and technology. Such association and interweavement of science and technology with daily life is so strong that one may contend that they have protruded into daily life and have become a public commodity.Press coverage of science, as an important duct, is to fill the gap between science and the public. Most people, including decision-makers, gain their information from mass media essentially or exclusively.The present study, therefore, aims to Identify the citizens’ experience of PCS (the means through which citizens communicate with scientists and research achievements) and Examine the role of media in contributing to PCS and PUS among citizens


Public communications of sciences; Public understanding of science and technology; Media.

Introduction and statement of the problem

As new technologies and science continue to flourish in the contemporary world, one may scarcely spot an area of human life still untouched by science and technology – from medicine and healthcare to arts, cinema and music; from construction and architecture to recreation, leisure and sports – all are closely associated with science and technology. Home appliances such as electrical devices, cookware, heating and cooling systems; and broadcasting tools such as the radio, television, satellite and the Internet are so widely in use that people cannot help but using them in their daily life and career consistent with their job and education. Such association and interweavement of science and technology with daily life is so strong that one may contend that they have protruded into daily life and have become a public commodity. One could hardly find a TV or radio channel that broadcasts no news on science and technology on a daily basis. One may hardly find a movie or TV serial that represents no sign of science and technology. Over the last few decades, a plethora of documentaries have been broadcasted on science and technological developments. News broadcasts typically cover science news as a specific category. Several movies have been made on the topic of science fiction and future technological developments. The press release amazing images of the depth of oceans, ground sceneries and wildlife on a regular basis and thus science and technology appear too strong to be overlooked by the public. The importance attached to scientific knowledge in the society and accurate public understanding of science have led many countries over the last decades to make determined efforts to increase public understanding of science and technology. Examples of these measures and efforts include extensive documentary broadcasts on science and technology in the media, science and technology newscast, press news on science and technology and public meetings attended by eminent scientists of various disciplines (Ghanei Rad & Morshedi, 2011).

Unfortunately, there is scarcity of efforts in Iran to improve public understanding of science and technology and involve people in science and technology as well as decision-making on the relevant issues. Still, Islamic Republic of Iran Broadcasting (IRIB) has taken measures and produced programs on science and technology. For instance, the number of scientific documentaries, science talks, news and reports on science has increased in IRIB. Specifically, many reports are broadcasted on science and technology in Iran. However, the volume of such broadcasts still remains negligible and insufficient. Of course, high expectations may not seem justifiable in a country like Iran where scientific and technological infrastructure is not developed so that we may not expect the authorities to devote too much energy to developing public understanding of science (PUS). Besides, we may not even expect people to show great interest and involvement in science and technology.Nevertheless, since our nation has chosen to follow a knowledge-based development route where an accurate understanding of science and technology is an advantage, it is necessary to examine and address PUS continually consistent with the development of science and technology, which is what many countries have already done concurrent with the development in science and technology.However, no attempt has yet been made to explain the why and how of PUS in Iran. Still, it seems that science communication researchers should base their attempts on a full analysis of where, why, when and with whom PUS and scientific learning occurs because such analysis can help researchers come across the best method of teaching science to the public. If we want to teach and transfer science effectively, we need to use methods that create enough interest in people to listen and learn. Thus, we need to know that where people are interested in learning, how they attend to the subject of interest and why they remain involved in scientific activity.Communicating science in the mass media is one of the issues that interest science analysts. Mass media are considered as the main public forum in modern societies and provide a framework to monitor individuals in society, inform citizens of the latest political and economic events and help shape attitudes in people (Ferree et al., 2002:10). Moreover, mass media tend to hold monopoly over communication in many aspects so that they have turned to be the only source of information for many people (ibid: 11). This is particularly true with scientific issues. Press coverage of science, as an important duct, is to fill the gap between science and the public. Most people, including decision-makers, gain their information from mass media essentially or exclusively (ibid: 9). This is why researchers reason that press coverage can be of great help to PUS, and, more importantly, it can contribute to the legitimacy, public support and funding of science (Nelkin, 1995). As a result, scientists are interested in establishing relations with the media.

Indeed, many scientific institutions create professional mediums to respond to the press demands (Peters et al., 2008a; 2008b). Science has come to be a main subject of coverage in the mass media (Nelkin, 1995; 1992: 31). Scientists frequently participate in debates on foreign policies, climate change and healthcare in media broadcasts (Stehr, 1992). The perceptible media coverage of science has exerted a marked influence in social studies on science so that a line of research has been devoted to the analysis of media coverage of science. Several studies have already been published on the topic, and many journals focus their scope on press coverage of science. A number of preliminary studies have been conducted on this area of research (Bucchi & Trench, 2008).Mass media are the main source of scientific knowledge for the general public (Friedman et al., 1986; Nelkin, 1995). This is because the media are the most available and even only source of information on scientific discoveries, debates, events and productions. Nisbet et al. (2002) reported a positive correlation of using scientific journals and TV science channels with reality-based scientific knowledge. They also found a positive correlation of using general press and scientific journals with systematic scientific knowledge while controlling for age, gender and education. Mass media are often considered as symbolic sites of public debate (Gumpert & Drucker, 1994). In case citizens understand scientific and technological terms often used in the media, they may be said to have scientific literacy in the realm of general civic discourse. Considering the problem delineated above, the present study aims to determine the status of PUS among citizens in Isfahan City in order to provide information for evaluating their perception of science and technology. Specifically, the study sets to identify the mechanism through which the mass media contribute to PUS. This study set to investigate citizens’ experience of public communication of science (PCS) and the means through which citizens communicate with scientists and research achievements. It also examined the roles that media play in contributing to PCS and public understanding of science (PUS). Focus group method was used to collect the data.

Research objectives

• Identification of citizens’ experience of PCS (the means through which citizens communicate with scientists and research achievements).

• Examining the role of media in contributing to PCS and PUS among citizens.

Research questions

1. How do different media contribute to PCS and PUS?

2. What experiences do citizens have of PCS? How is communication established between citizens and scientific achievements (i.e. scientists)? When and where do scientists communicate their achievements to the public?


Qualitative research method (focus group) was used to study the lived experiences of citizens about communication between science and the public. Since the qualitative phase of the study was conducted to delve into the mindsets, attitudes and lived experiences of the informants and to identify their understanding of science, the agenda was not to support or reject a theoretical approach. Thus, although various theoretical approaches were discussed in the previous chapters and their relevant concepts were used in designing interview guidelines, they merely functioned as catalyzers. That is, they were drawn upon as a frame of reference rather than a pre-determiner of the phenomenon under study. In other words, the researcher aims to emphasize the creation of concepts as far as possible in this stage and avoid the imposition of preexisting concepts. However, some scholars contend that it is not necessary for a qualitative research to come up with a theory generalizable to a wide spectrum of situations so that rich descriptions may suffice sometimes (Hemati, 2011: 311).

Definition of focus group

Focus group is an invaluable method of data collection in qualitative research. A focus group is a semi-structured group session conducted by a group leader. The discussion is held in informal sessions to collect data on a specific subject. A basic assumption underlying focus group is that people are invaluable sources of information and can describe their feelings and behaviors. It is also assumed that the dynamicity of the group can encourage people to describe their attitudes in ways that scarcely occur in quantitative interviews.

How to select the participants in a focus group

In the present study, the subjects were selected using purposive sampling method. Purposive sampling includes the selection of specific units based on specific goals to answer specific questions (Mohammad Pur, 2011). From among the different purposive sampling strategies, mixed purposive sampling was used in the present study whereby a few sampling methods are mixed together. That is, homogenous and snowball samplings were concurrently used along with intensity sampling as the basis. In this regard, we first tried to identify rich sources of information about the phenomenon under study among my relatives and friends. Besides, citizens who obtained the top ten percent of PUS scores on the quantitative questionnaire were invited to participate in the focus group (intensity sampling). Then we asked the participants to suggest people with similar attributes for interview (snowball sampling). According to the logic of homogenous sampling, we assigned the participants into three groups for group discussion. Moreover, we applied the criteria for homogeneous sampling (e.g. education, income and job) to add more to group members. Consistent with homogeneous sampling, we decided that group members should possess a set of similar attributes in terms of the level of education, income and job.

Number of participants in focus groups

Three focus groups were used in the present study each comprising 8 citizens.

Steps of analyzing focus group discussions

The analysis process can be divided into a few major steps as illustrated in Figure 1 (Debus, 1998; Nowrouzi Joinani, 2009).


Figure 1: Steps of conducting and analyzing focus group

Data analysisFigure 1. Steps of conducting and analyzing focus group

As mentioned earlier, the data were analyzed using Collizzi’s seven-step method (1978). The analysis was conducted to make up descriptive, interpretive and explanatory codes. The seven-step analysis was performed as follows:

Step 1: Arriving at a general understanding of the participants’ experiences by rereading the text

After transcription of the interviews based on a specific set of principles, I perused the text again. In order to gain a better understanding of the conversations, I also referred to the audio files of interviews and listened to some parts again. Thus, I developed a general understanding of the participants’ experiences.

Step 2: Extraction of important statements

In the second step, I divided the texts into meaningful units. A meaningful unit is part of a text that conveys a meaning per se, which may vary in size from a word to a set of sentences. After the segregation of meaningful units, I extracted the relevant and important units. In Collizzi’s method, this step is referred to as the extraction of significant statements.

Step 3: Descriptive coding

In the third step that can be briefly referred to as the stage of descriptive coding, a description was attributed to every significant meaningful unit. It was critical in this step that descriptive codes be loyal representatives of the meaningful units. After encoding the whole texts, duplicated codes were eliminated, and common descriptive codes were extracted by creating new categories.

Step 4: Interpretative coding

Following the extraction and refinement of descriptive codes, we classified the descriptive codes with shared themes in different categories. Then we assigned a specific name to every category. These names and titles were the interpretive codes. While descriptive codes are meant to remain loyal to the text, interpretive codes are meanings assigned to the descriptive codes by the researcher. More specifically, the researcher draws upon Typification II at this stage. However, Typification we is performed by the participants, and the researcher only classifies them in descriptive coding. In this stage, we tried to ensure the accuracy of interpretive coding by making frequent references to the text and avoiding subjective bias in loading meanings onto the statements.

Step 5: Integrating the extracted interpretations into an exhaustive whole

In order to climb the ladder of abstraction, we articulated the interpretative codes in the form of an exhaustive narration of the phenomenon under study. The purpose was to juxtapose the extracted interpretations in an integrated whole.

Step 6: Explanatory encoding

We further codified the exhaustive narration of the phenomenon under study into a model of explanatory coding relations. These codes are used to develop the research model.

Step 7: Validation of the extracted model

Eventually, in order to validate the extracted model, we referred back to five participants of the study and asked for their opinions as to the research findings.


Contending that the concept of validity is positivistic, Lincoln and Cuba (1985) assert that credibility is a better measure in qualitative research. They suggested the four measures of credibility, transferability, dependability and confirmability instead of the classical measures of internal validity, external validity, reliability and objectivity. Accordingly, they developed techniques to examine them. Drawing upon this classification, expert opinion method was used to ensure credibility in the qualitative phase of the research. In this regard, a research assistant was hired who was familiar with the phenomenon being studied and qualitative methodology. The assistant had unlimited access to group discussions, coding and the main extracted themes. After coding was done, we asked the assistant to review the relations between the extracted themes and relevant interpretations and see if the interpretations were truly representative of the themes. The outcome of the review process was a series of questions and answers between the researcher and assistant and making modifications. In order to ensure transferability, we tried to consider all details as to the main and subsidiary themes and concepts, theoretical sampling, measures taken to access key informants and barriers to the research.With regard to dependability of the findings, a certain number of key informants were selected using mixed purposive sampling consistent with the literature and different approaches to the sampling and number of participants. As to the confidentiality of the data, the subject and objectives of the research were explained to the participants at the beginning of every discussion session. The participants were ensured that the discussions were used anonymously in the study, and the audio files would be deleted after the completion of the research. While trying to ensure the informants of the confidentiality of the data, we tried to hold group discussions in an informal and trustful atmosphere. In order to ensure confirmability, all discussions were recorded using a tape recorder, transcribed and analyzed meticulously.


Explanatory, interpretive and descriptive codes

1. How do different media contribute to PCS and PUS?

2. What experiences do citizens have of PCS? How is communication established between citizens and scientific achievements (i.e. scientists)? When and where do scientists communicate their achievements to the public?

Figures 2 through 17 illustrate the road map developed to help understand the main findings of focus group presented in two categories: (1) citizens’ experience of PCS and (2) contribution of media to PUS. In the road map, "●" represents explanatory codes, "■" illustrates interpretative codes, "□" indicates interpretative sub-codes and " – " represents descriptive codes. In some cases, quotations are directly cited of the participants in order to clarify the qualitative coding method for the readers.


Figure 2. Explanatory codes extracted from qualitative study


Figure 3. Explanatory and interpretive codes of citizens’ experience of PCS


Figure 4. Interpretive and descriptive codes of institutional communications


Figure 5. Interpretive and descriptive codes of communication through publications


Figure 6. Interpretive and descriptive codes of reward-based communication


Figure 7. Interpretive and descriptive codes of educational-promotional communication


Figure 8. Interpretive and descriptive codes of media communication


Figure 9. Interpretive and descriptive codes of media contribution to PCS


Figure 10. Interpretive codes and sub-codes as well as descriptive codes of the representation of ‘the application of science to solving practical problems’


Figure 11. Interpretive codes and sub-codes as well as descriptive codes of ‘Providing training on how to apply thought and scientific method in solving real-life problems’


Figure 12. Interpretive and descriptive codes of ‘representing science-related issues in media’


Figure 13. Interpretive codes and sub-codes as well as descriptive codes of ‘representation of the opportunities for public participation in science’


Figure 14. Interpretive codes and sub-codes as well as descriptive codes of the ‘representation and transfer of tacit knowledge’


Figure 15. Interpretive codes and sub-codes as well as descriptive codes of the representation and production of ‘a scientific culture’


Figure 16. Interpretive codes and sub-codes as well as descriptive codes of ‘increasing the audiences’ ability to communicate with science’


Figure 17. Interpretive codes and sub-codes as well as descriptive codes of representation of ‘the mental lifeworld dominating the society’


Figure 18. Conceptual model of the reseach

* Maryam (34 years old, B.S in mathematics) said, “I am a teacher and a member of Isfahan House of Mathematics. I participate in some of its classes and lectures. I think it is necessary because it helps improve my knowledge. I advise my students to become a member. Many of the mathematic concepts and formulas are taught in practical manner in there so that they would be easier to understand.” ** Mohammad (45 years old, B.A in law) said, “We came to know Fanamooz Park in the University of Technology through my daughter’s school. I have taken my daughter there a few times so far. It provides different equipment to teach sciences. It had a room called ‘Laser Shows Salon’. They filled the room with fog using a fog machine; then they sent out the Laser rays and changed the ray angles using a computer. They created weird images in the room, which my daughter liked a lot….”

* One of the participants said, “one of my friends introduced Vista E-Journal to me. Because my husband has mild diabetes, after registering in the journal’s website, I asked them to email me information about diabetes. The information I receive is nice and practical.”

* Sara (31 years old, student) said, “when I was at high school, I passed the first and second round of literature Olympiad exams. Then they took us to the summer Olympiad camp in Tehran. There, prominent teachers of literature taught us. I’ll never forget it. It was one of the best experiences I’ve had in my life. They taught us how to interpret Hafiz’s poetry two hours a day – the interpretation school of Khatib Rahbar. I learned a lot.”

*Hamid (student at Shahid Ezdehie high school) said, “the school takes us to many scientific visits. The same is true with training workshops. I myself participated in the training workshop on crescent observation, which was amazing. I also learned a lot about planets.”

**Hamid (the same participant) said, “one of the visits I liked a lot was to the National Center for Science and Astronomy in Tehran. The school took us to the excursion there. All I know about astronomy I learned in the excursion.”

***Mohammad Reza (25 years old, Bachelor’s degree) said, “visiting the Construction Industry Fair in Isfahan was very informative. I learned about a variety of new concretes in the fair. One of the concretes was designed so that it had the highest strength with the lowest weight.”

*One of the participants said, “ever since I came to know My Baby program on Salamat Radio, I have done much easier. The program is terrific. It offers great information on child nutrition.” **Sara (31 years old, student) said, “I often watch the Scientific-Cultural News on channel 4. Though I watch no other program, I tend to watch this.”

***Another participant (43 years old, M.A in Persian literature) said, “I do love Hasht Behesht program. I really enjoy it to see university professors and successful people and to know their biography. When the program starts, I ask my children to get over and watch the program.”

****One of the participants (41 years old, bank clerk) said, “I got a ten-year-old son that likes scientific documentaries a lot. A few days ago, he was watching the Frozen Planet from Mostanad 7 program. When a documentary is shown, we cannot get him off the TV.”

*****One of the participants (25 years old, homemaker) said, “during my pregnancy, I always referred to the Internet first whenever I had a question. Sexual Health and Fertility website was particularly good. Most specialized technicalities are written in simple words on the Internet. When I went to the doctor, she would say the same things.”

*Bahareh (36 years old, homemaker) said, “I always follow the ‘Be Healthy’ on Channel 3. The experts participating in the program provide very good information on how to keep food, particularly in summer.

**The same participant (Bahareh) said, “different diseases are also introduced in the ‘Be Healthy’. In a recent program, it talked about hair loss. I had serious hair loss for quite some time, but I didn’t know its cause. The doctor explained that serious hair loss in women may result from hypothyroidism. When I had thyroid examination, I found out that I had hypothyroidism and that was why I used to lose hair.”

***Another participant said, “there was a TV program – I don’t remember its name though – that was about air pollution in large cities. It advised citizens to take at least a glass of milk every day because milk increases body resistance to air pollution.”

*Nargol (21 years old. student) said, “once, Dr. Mir Seyedi made a news report about cancer and people’s fear of it. She said, despite what people believe, cancer isn’t hereditary. For example, if one’s father or mother has cancer, it doesn’t mean he would get it too. A wrong lifestyle and unhealthy food are the main culprits of cancer. As to the treatment, she said people are extremely afraid of the disease unduly. Many approaches to the treatment of cancer have been developed in Iran recently. She said about 50 percent of the cancer patients have been treated in Iran over the last three years.”

*Qassem (41 years old, telecommunication engineer) said, “the news on TV reported about MS disease and the medicine produced in Iran to treat it. It seems an inventor has produced an herbal medicine called ‘Persian Gule’, and some MS patients have been treated by it. Apparently, it needs 2 billion Tomans to be produced at the industrial level.”

*Sara (31 years old, student) said, “I visit international book fairs in Tehran and Isfahan every year. I look for books relevant to my career. I understand their dates through news on different channels.”

*Bahareh (36 years old, homemaker) said, “I always follow the ‘Be Healthy’ program broadcasted every morning from Channel 3. It’s so cool. Doctors attend the program and people call them to ask questions. A program was about knee pain, which came in really handy because my mother has knee pain. All questions people put to the doctor were also mine.”

*Alireza (32 years old, customs officer) said, “I watched ‘Soraya’ program which was showing, I guess, on Channel 1. It was about the application of nuclear energy in daily life. It also provided plenty of information about students’ refusal of the suspension of nuclear program. The families of Nuclear Martyrs also attended the program and talked about the activities

Discussion and conclusion

A) How media contribute to PUS

The results showed that The media tend to translate and simplify science in order to improve public communication with science. That is, they paraphrase scientific terms and concepts such that the audience can understand them easily. In fact, the media draw upon the language of pictures, films, tables and figures to render the scientific contents perceptible to the audience and improve their communication with science.participants of the focus groups had experienced the use of Health Weekly due to its simple presentation of specialized nutrition issues, simple definition of the term nutrient micro-materials in an article on physical fitness, simple definition of embolism and cardiovascular system in the footnotes of a medical article for ordinary readers, which all indicate the capacity of media to increase the audiences’ ability to communicate with science.The use of scientific media was shown to have led to understanding the social-cultural milieu and mindset of the society. Participation in group discussions on appropriate clothing fashions for men and women in Modesty and Hijab Fair, achievement of nuclear technology, islamization of humanities and development of resistive economy revealed that the participants had watched comprehensive media coverage of these issues, which indicate the role of media in the representation of the mental and cultural lifeworld dominating the society. In other words, the media can represent the social-cultural setting and mindset. The audience can intellectually engage with the cultural texture of the society via media and understand the importance of science for solving social problems. One should note that the providers, transmitters and receivers of scientific programs via the media would produce, transmit and consume public scientific messages in their interaction with this cultural setting. The importance of text and cultural milieu in science is so critical that it plays not only a role in the application stage but also in the production stage.As the mediating actors in the network, the media can reinforce the characteristics of a science-supporting culture in the audience through representing the dominant cultural-mental atmosphere of the society. This further supports the mediatory role of media contribution to PUS. In focus group discussions, the participants noted that IRIB had broadcasted programs on the necessity for moral and financial support of elite scientists such as offering research grants to top researchers, the grants offered to knowledge-based cooperative companies by the Ministry of Cooperatives, Labor, and Social Welfare and the necessity for government’s investment in scientific research. These findings emphasize the role of media in creating a science patronage culture among citizens. In this regard, in addition to conveying information to the audience and showing the importance of science in daily life, public science assigns responsibilities to the audience that prepare social conditions for the development of science. These actions are conscious efforts that the audience should do to support science, which are considered as scientific action according to Lewenstein (2003: 7).

Through translation and simplification of science and increasing the audiences’ ability to communicate with science, media increase public participation in science and technology programs. In focus group discussions, the participants claimed that they were provided with information by IRIB and particularly through the Scientific-Cultural News on ‘International Book Fair in Tehran, the National Nuclear Industry Fair, Science to Practice Fair, the scientific meeting on numismatics on the International Museum Day, the scientific meeting of Astronomy Club at the National Center for Science and Astronomy in Tehran, Iranian scientific societies, the activities of National Society for Animal Conservation, the Museum of Stamps and Bank Notes, the Natural History & Technology Museum of Shiraz, to name but a few, so that they were familiarized with these scientific centers and could participate in them. Participation in and attending scientific centers provides the opportunity for the interaction of scientific knowledge and method with non-scientific methods in a non-abstract and tangible situation. However, one should note that the contribution of media to engaging people in science would clearly direct the relationship between science and the public to the following pathways: (1) providing a context for the development of science, (2) providing science with the data that indicates participation in scientific development, and (3) realistic understanding of science that leads to a context for scientific development and engagement in science.The results obtained from focus group discussions indicated the representation and transfer of citizens’ tacit knowledge in the media, which helps increase public understanding of science and technology. The focus group participants reported that they frequently watched interviews with people in different media about different issues, or they watched programs in which an expert offered consultation with people calling him/her to talk about their problems and experiences and receive consultation (e.g. ‘Health Apple’ and/or ‘Payesh’ programs). Thus, the representation and transfer of citizens’ tacit knowledge through communication with the audience could improve PUS.In fact, one could contend that scientific media play their role of establishing communication between science and the public through representation and transfer of people problems and the solutions they have developed for such problems. Such knowledge, which is people’s and is developed in ways other than conventional scientific methods, is called tacit knowledge. When media transfer the tacit knowledge from the public domain to the science domain, they enrich the science. In this regard, the media both increase the interactions in the science domain and engage the public in science. On the other hand, according to Latour(1987), the flow of scientific knowledge does not always run from experts to the public so that it might as well be shared or multilateral. Thus, media are not the only conveyors of scientific messages from scientists to people, rather they can also convey people’s tacit knowledge (e.g. fishermen’s knowledge of a river and fish behavior) to the scientists. Based on the above discussion, this only occurs when communication is established between science and the public. Therefore, the representation of tacit knowledge in public scientific media is a further factor improving PUS, which makes it possible to study the impact of public scientific media on the audience knowledge. Moreover, by transferring the tacit knowledge of the public, media can increase communication between the public and experts and distance them from the specialized issues. Bucchi (1998: 12) argues that the importance of public science is not only for increasing public knowledge and cohering people with science. In fact, the audience of public scientific communication is not only the public since public science touches many experts as well without being thwarted or suppressed by the conventional pressures and limitations in scientific communication.According to Felt (2005: 20), by moving toward the public domain and leaving the very formal core of science system, scientists would find the opportunity for creativity. According to Felt (ibid: 20-21), it is for three reasons that the communication of scientists with the public can increase creativity in scientists:

a) Intellectual and debatable issues are raised in the public sphere easier than the formal canals inside the science sphere. Examples are relativity theory, quantum physics and psychoanalysis.

b) Revisiting complicated bodies of knowledge and placing them in a more general texture modify and increase scientists’ creativity.

c) In the era when distinction in the science domain is increasing, public evaluation is considered as an important tool to increase synergy among different disciplines and research areas. Since the experts of a discipline are typically naïve in other disciplines, such public evaluations are regarded as an approach to contacting and understanding developments in the relevant disciplines.

Thus, public science can provide the opportunity for confluence of people’s ideas with the experts’. This refers to the events occurring in the minds of people and helps interact scientific and non-scientific thoughts, which may bring about new thoughts and ideas.In sum, the representation of citizens’ tacit knowledge in the media and its role in PUS can be explained by the fact that scientific knowledge and non-scientific knowledge do not develop in two different contexts. Rather they are the result of continuous interaction between experts and non-experts. This type of knowledge is called non-specialized knowledge by Michael (1998) and Callon (1999) while Woolgar (2000) and Logan (2001) refer to it as interactive science. One of the important functions of media is to play a mediatory role to link scientists with the public and produce interactive science. The focus groups discussions revealed the representation of science-related issues in media such as introducing science as the result of human efforts, representing the strengths and weaknesses of science and technology in contributing to human welfare, justifying scientific research and the like in media. For example, the participants reported that they learned about expertise and higher education through Hasht Behesht and Visiting the Elites programs. Indeed, the media succeeded to represent the fact that science is the result of human efforts. The participants also knew about new medicines for controlling cancers and/or research for the preservation of an animal species through the Scientific-Cultural News. This indicates that one of the reasons for scientific research represented to people by media is the need for the treatment of diseases and solving environmental problems.The results obtained from focus group discussions showed that Iranian media contributed to teaching science-based actions particularly in the field of occupational health. In fact, the findings suggested that mass media created a common informational and cultural reservoir on which citizens depend in their daily life. This common information store makes intersubjectivity possible. The results showed that people wanted to use scientific thought and behavior to enrich their daily life, which further supports the role of media in creating relations in the society.Indeed, science-related issues include political conditions; educational, social and economic needs for an innovation; market needs; customer needs; academic requirements; environmental effects and biological issues that both improve the audience’s knowledge of the factors affecting the development of science and technology and lead to a critical attitude toward science and technology among the audience. The results regarding the representation of science-related issues in media may be justified using Logan’s interactive science theory (2001). According to Logan, science is produced as a result of the interaction of social, economic, cultural and academic conditions. One of the important roles of media is to be a mediator for the interaction between the public and experts to produce interactive science. This should be considered in the production of public science. Indeed, public science should be able to both increase our understanding of science and contribute to our scientific understanding of the world (Brown, 1986). Public science may be considered as the social representation of science. That is, the quality or method of public science production affects the educational role of media. Erickson (2005: 147) considers public science – by emphasizing the representation of science – as the media programs for non-experts produced by eminent scholars and writers, which can facilitate the audience’s understanding of science and the interaction between experts and the public. Representation of science-related issues in the media increases the audience awareness of their environment and the issues of interest for specialists. In this way, media provide the audience with information and topics to discuss in society. When such a link is created between science and the public, it creates a context for generating new ideas about science and new topics for scientific research. Science is produced as a result of the interaction of social, economic, cultural and academic conditions. The conveyance of such concepts in public science increases audience’s knowledge of the uncertainty of science so that the audience may not feel disillusioned by receiving contradictory information of the same research subject. The development of such form of communication in the media may also increase the audience’s trust in the media.

B) Citizens’ experience of PCS

This part of the study was conducted to answer the question ‘How is communication established between citizens and scientific achievements (i.e. scientists)? When, where and how do scientists communicate their achievements to the public?’

The results of focus group discussions showed that the participants experienced the communication of science in different ways as follows:

1. Using such institutions as libraries, scientific societies, science houses, science and technology parks, cultural centers, universities, Institute for the Intellectual Development of Children and Young Adults and non-governmental organizations: the existence of such stable institutions has encouraged people to accept their performance and do not consider them as transient phenomena. Just as the existence of a ministry denotes the importance government attaches to it, the existence of stable institutions for the development of PCS also indicates the importance that government and statesmen attach to PUS. The permanence and stability of such institutions help the science permeate into society. Normally, an organization whose activities people see and understand on a daily basis can have an important role in communicating scientific achievements to people.

2. Through reward-based systems such as national and regional awards of science, scientific Olympiads and scientific festivals: ‘the promotion of science is popularizing science.’ This sentence is an excerpt of Science Journal, which supports the present finding and marks the real purpose for communication of science. Normally, rewards are necessary to popularize an issue. Presenting awards, medals, research grants and introducing the winners in media can encourage the society to participate in science both materially and morally. Thus, one of the effective mechanisms promoting the communication of science and publicizing scientific developments is appreciating scientists, students, promoters and all those who are engaged in science. The criterion to this is numerous awards that contribute to the advancement of science and technology.

3. Participants in the focus group reported that they were engaged in the communication of science, interaction with scientists and scientific achievements mostly through educational and promotional activities such as attending training workshops, scientific conferences, reading science fiction, attending scientific lectures, scientific visits, scientific occasions and watching scientific shows. This finding can be justified such that new methods of information and communication are under way to promote science and technology, which can bring about incredible opportunities for scientific activities. One of the crucial experiences in the promotion of science is ancillary activities that may even be treated as recreational activities sometimes. In our society where the information feasibility through computer, Internet and scientific journals is limited, it can be highly effective to use recreational events to increase PUS. Drawing upon recreational occasions for the promotion of science may have the following functions:

• Encouraging people at a larger scale to engage in science

• Adding to the attractiveness, accessibility and intelligibility of scientific issues

• Demystify scientific phenomena to embed science in culture

• Increasing sensitivity towards science particularly in women and children

• Promoting the idea that science is enjoyable and interesting

• Changing the cultural milieu in societies that may consider scientific phenomena to be contrary to values

4. Participants in the focus group declared that they gained their information through watching scientific TV broadcasts (e.g. watching the Scientific-Cultural News on Channel 4, watching 4-Quarters of Science program, watching Night Sky program about astronomy and constellations, watching Surgeons program, watching Ophthalmology News program, watching Visiting the Wise program, watching Hasht Behesht program and scientific discussions), watching documentaries (e.g. watching Lemur Blues, watching Zagros Birds documentary, watching Causes documentary about preservation of the environment, watching Frozen Planet documentary about polar animals), scientific weblogs and websites (e.g. using Salamat News website, Pezeshk Online information center, using Sexual Health and Fertility website during pregnancy, Nutrition and Health Information Center, Using Child Health website), reading scientific columns in newspapers (e.g. reading the health page in Hamshahri Newspaper, reading the medical page in Ettela’at Newspaper) and listening to scientific radio broadcasts (e.g. listening to Farasu program, listening to My Baby program, listening Salamat Show and Medical News).As discussed, people mainly turn their attention toward scientific programs in media, health issues and the application of science to life. A significant part of this finding and media conditions can be explained by Snow classification as to the gap between science culture and humanities culture. According to Cohen, science has created a certain system of its own in attracting the attentions and continuous specialization. However, in the process of reflecting back to the society and actualization in the social domain, science has to go through the media canal. Like other news categories, science news should achieve a threshold of worthiness in order to be screened. Due to the time limitations in radio and TV channels as well as spatial limitations in print media, it is difficult to reach such a threshold that is determined often in proportion to other news and under the pressure of deadlines. In fact, scientific news needs to gain this opportunity in competition with other social domains. Speaking in terms of news value, such domains as politics, economy, culture and society are more inclusive of daily life issues. Thus, people pay greater heed to them. Weigold (2002) contends that although the communication of science has long been addressed by social communication scholars, science has a negligible share of coverage in media comparing with politics, professions, sports and recreation. Thus, the amount of time and space allocated to science in newspapers is incomparable with that allocated to other social issues. Carrada (2006: 55) argues that it would be very difficult for science to occupy such a space as it requires considerable time and cost. He asserts that it is only through time that such space can be acquired while it is still unknown how effective a scientific paper or program can be in TV, radio or newspaper. However, he contends that it is important for science to acquire such a space as it is only through media communication that scientific discoveries are realized and put into a social, political and economic context that has an important role in deciding the fate of science and technology by either supporting or rejecting different scientific approaches. Weigold (2002) explains that it is not surprising that the greatest part of scientific reports cover the issue of risk that the public highly favor. The reason for this interest is clear. Scientific discoveries can help people prevent health risks (e.g. encouraging people to have better nutrition and exercise training), identify risks (e.g. new technologies can identify disease symptoms sooner) or discover the risks (e.g. permeation of radioactivity in soil or the relationship of cell phone and smoking with cancer). It seems that one can distinguish between the objective reality of risk, as it is statistically estimated by experts, and its social perception. Their difference may lie in the breadth and extent to which the media cover the risk. Risk perception is determined not only by statistical measures but also by a sense of apprehension and by how it is perceived. In this regard, more than covering science in its totality, the media tend to cover the risks and benefits as well as application of science to daily life: whether or not science has news on the risks that endanger the lives of people; whether or not a laborsaving or life-prolonging machine is produced; or a treatment is discovered for fatal diseases. Most important are health issues, and people are most eager to hear health news.


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