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  <front>
    <journal-meta />
    <article-meta>
      <title-group>
        <article-title>Machine Learning Methods for Indicating Cultural Biases in Spoken Russian Language: Dominants and Trends of Modern Society</article-title>
      </title-group>
      <contrib-group>
        <contrib contrib-type="author">
          <string-name>Anna Chizhik</string-name>
          <email>a.chizhik@spbu.ru</email>
          <xref ref-type="aff" rid="aff2">2</xref>
        </contrib>
        <contrib contrib-type="author">
          <string-name>Yulia Zherebtsova</string-name>
          <email>julia.zherebtsova@gmail.com</email>
          <xref ref-type="aff" rid="aff0">0</xref>
        </contrib>
        <contrib contrib-type="author">
          <string-name>Alexander Sadokhin</string-name>
          <xref ref-type="aff" rid="aff1">1</xref>
        </contrib>
        <aff id="aff0">
          <label>0</label>
          <institution>Inforser Engineering</institution>
          ,
          <addr-line>Ryazansky Prospekt, 24, building 2, 109428, Moscow</addr-line>
          ,
          <country country="RU">Russia</country>
        </aff>
        <aff id="aff1">
          <label>1</label>
          <institution>Russian State Social University</institution>
          ,
          <addr-line>107076, Stromynka str., 18/28, Moscow</addr-line>
          ,
          <country country="RU">Russia</country>
        </aff>
        <aff id="aff2">
          <label>2</label>
          <institution>Saint Petersburg State University, 10th line of Vasilievsky island</institution>
          ,
          <addr-line>49, St.-Petersburg, 199178</addr-line>
          ,
          <country country="RU">Russia</country>
        </aff>
      </contrib-group>
      <pub-date>
        <year>2021</year>
      </pub-date>
      <fpage>253</fpage>
      <lpage>260</lpage>
      <abstract>
        <p>The formation of a socio-cultural layer is based on a person's understanding of himself and the world around him and the translation of this under-standing into abstraction. This inevitably leads to the emergence of cultural biases in society as an extreme form of separation of one social group from another. In fact bias is nonrandom errors in thinking. The growing cultural biases in society is preserved in the consciousness of individuals and further affects the possible interpretation and perception of the neighboring social group, and, therefore, the public mood, in other words, the level of aggressiveness of the society. Thus the problem of identifying cultural shifts is relevant for the scientific community. There are many methods based on surveys and their subsequent analysis. In this paper, we propose to use machine learning and analysis of the large collection of text data from social networks (public Telegram chat). This approach can complement the standard methodology, including helping to reveal hidden patterns by being able to cover large amounts of data.</p>
      </abstract>
      <kwd-group>
        <kwd>1 machine learning</kwd>
        <kwd>natural language processing</kwd>
        <kwd>text clustering</kwd>
        <kwd>cultural biases</kwd>
        <kwd>text analysis</kwd>
        <kwd>cultural code</kwd>
        <kwd>cultural process</kwd>
      </kwd-group>
    </article-meta>
  </front>
  <body>
    <sec id="sec-1">
      <title>1. Introduction</title>
      <p>The view of the world formed by immersion of an individual in media space, which includes all
possible communication channels (communication «one to one», «one to many», «many to many»). In
the current moment, social networks accumulate the potential of the key influence on the consciousness
of individuals due to their dynamic structure. A complex of stable associations, opinions and stereotypes
around complex social phenomena is formed on their basis. Even where social networks are not the
primary sources of information, there is a need to get an opinion of people to the news by this channel
of mass communication and to compare own opinion with the opinion of others. The
nonrepresentativeness of information increases within horizontal communicative structures. Thus, social
media texts not only build the information agenda, but radically affect to social mood and public opinion
by spontaneously distorting the picture of objective reality.</p>
      <p>Therefore, social media texts form a subjective and biased point of view on events, creating a certain
image of reality in the mind of the information consumer and influencing the course of events in the
end. The peculiarity of communication in a social media lies in the specific flow of interpersonal
perception processes. People find uncertainty in interpersonal relationships unpleasant, thus they are
motivated to reduce it. Stereotyping and identification by affiliation with particular social groups have
a strong influence on individual mind in this way and contribute to judge a person. This provides the
situation in which social network participants are united by homogenized opinions by r receiving an
average consciousness.</p>
      <p>Participants of communication are keen to get approval of the social group, thus the feedback effect
(verbal response, likes, emoticons) provides an important incentive. Social networks are not a platform
for spontaneously emerged communities and they are not isolated from other channels of interactions
with information flows. Therefore, sociocultural tendencies penetrate there from media sphere in its
multifaceted understanding (including through traditional media, opinion leaders, propaganda, etc.).
The cycle of comments (and replies to them) is repeated depending on the severity of the topic and the
activity of the initiators of the conversation thread. Acquiring the features of recursion, this cycle of
communication forms public mood and stereo-types.</p>
      <p>The effectiveness of communication remains in question, because the existence of a rational
conversation vector (constructive dialogue) is quite difficult to trace. Since the incentive to continue
communication in this case is the approval of the majority, it is fair to assume that this kind of dialogue
strengthens the existing cultural and social biases, and also creates the basis for the formation of an
aggressive field around them.</p>
      <p>Subjective and systemic biases of social actors influence to the information choice and content
features of texts which are presented in this communicative space. Subjective biases operate at the level
of individual information processing in the context of current events. Such subjective biases could arise
from shared values, information overloads, and cultural preferences. Some of the subjective prejudices
are transformed into systemic ones over time, which shape the consciousness of individuals at the
mesoscopic level (mass consciousness). This creates patterns in the mindsets of societies. These
regularities cannot be observed at the level of a specific statement of individual. However these patterns
can be observed by analyzing big data. In this paper we present mathematical methods for detection
these collective spontaneous information filters, which form cultural and social biases that exist in
modern Russian society.</p>
    </sec>
    <sec id="sec-2">
      <title>2. Method</title>
      <p>The language model is the basis for mathematical methods of text analysis. It provides to calculate
the probability that a word will follow a given word sequences as a continuation of the text. Thus a
statistical language model helps to calculate the probability distribution function on a set of vocabulary
sequences.</p>
      <p>
        One of the first methods of constructing language models was n-gram model [
        <xref ref-type="bibr" rid="ref1 ref2">1, 2</xref>
        ]. The probability
of a word sequence is considered as the product of word probabilities, given the known previous ones.
Therefore only a few previous words (n words) are matter for this kind of statistical analyze. Further
various architectures based on machine learning algorithms and artificial neural networks were
widespread as the basis of language models [
        <xref ref-type="bibr" rid="ref3 ref4 ref5">3, 4, 5</xref>
        ]. Neural network language models are divided into
two groups: word-aware NLM and character-aware NLM.
      </p>
      <p>
        A good language model must capture two important properties of a natural language. The first one
is correct syntax. Thus, a few previous words are sufficient for a relevant prediction of the next word,
however the word order in a sentence becomes important item. The second property is coherence.
Including large number of words is often required in order to understand the global meaning of a
sentence or document (but the word order has less importance). Traditional N-gram models and neural
probabilistic language models have difficulties in extracting global semantic information from text
(because of a fixed-size context window), that is, polysemy and context-dependent nature of words are
not taken into account. Consequently, contextualized language models are gradually gaining popularity,
trying to take into account the context of the use of the word [
        <xref ref-type="bibr" rid="ref6 ref7 ref8 ref9">6, 7, 8, 9</xref>
        ]. This approach allows combining
two necessary properties of a natural language (correct syntax and coherence).
      </p>
      <p>The process of train a language model begins with creating a collection of texts by natural language
(dataset). A language model predicts the next word in a text, thus it should have seen a lot of examples
to learn the language. Essentially the model calculates the probability the appearance of a word next to
the known word sequence. This prediction is based on examples from the dataset. For the representation
of words into a language model it is necessary to map words or phrases from the vocabulary to vectors
of real numbers (word embeddings). Consequently the semantic similarity of words or the frequency of
their joint occurrence can be detected by comparing the distances between these vectors (cosine
similarity).</p>
      <p>A classic example of this method shows the interdependency between pairs of words («king-man»
and «queen-woman»). Figure 1 demonstrates that algebraic operations in this space correspond to
operations on the meaning of words.</p>
      <p>Similar calculations can be performed for sentences (Fig. 2). This allows calculating the similarity
of the entered phrase (its semantic coherence or antonymic nature) to sentences from dataset that are
already understandable to the language model.</p>
      <p>Accordingly semantic relationships between words (or sentences) are gaining mathematical meaning
in a vector space. This suggests that the most productive language models reproduce text sequences that
contain typical biases for social micro and macro groups. These biases initially arise as an emotional
reaction to different phenomena and antagonistic groups. The detection of these biases by language
model is possible because its training occurs by calculating the joint occurrence of words. In other
words, a language model would know better that «freedom» is used with the word «speech», the more
often such idiom («freedom of speech») would be found in the training dataset. In summing up, the
biases, that was found in datasets and fallen into language models, in general, can be characterized as
actual social landmarks of society.</p>
    </sec>
    <sec id="sec-3">
      <title>3. Typology of cultural bias</title>
      <p>The following types of cultural biases can be identified: national or religious ideals, social
connotations, gender stereotypes and aggressive statements of a general nature.</p>
      <p>
        Cultural biases in natural language can be present in a latent form or in a direct manifestation of an
attitude to the object of a statement. The collected text data (on the basis of which the language model
works) attracts to socio-demographic and mental stereotypes, traditions and patterns of behavior
accepted in society. Therefore, it seems interesting to analyze the social connotations and contexts of
cultural biases. In this paper, we provide the analysis of biases in two contexts: the ones that at the
descriptive level reflect social mood [
        <xref ref-type="bibr" rid="ref10 ref11 ref12">10, 11, 12</xref>
        ] on a specific topic, and those that outline the
characteristics of a social group. A group is people with the same markers (gender, nationality, etc.).
      </p>
    </sec>
    <sec id="sec-4">
      <title>4. Experiments and Results</title>
      <p>The public Telegram chat has been chosen as the data source (chat of the news channel Mash –
«MACH», 1608 participants, not moderated). Thus, the overall text collection consists of 556 354
records, the first of which was dated 2018-07-05, and the last - 2020-12-03).</p>
      <p>Clustering of messages provided first characteristics of the chat conversations, including the
information about topics' content and their close interaction with each other. The cluster analysis of the
dataset was performed with the k-means algorithm. The vector matrix was created using Word2Vec
model trained on our dataset in order to obtain more unambiguous result of partitioning into cluster
groups. Figure 3 shows that the clusters are very close to each other, and even sometimes intersect in
space.</p>
      <p>The next step was to identify the associative chains of terms. Pairs and triples of words were taken
to take this goal. The model found the most semantically close terms from the dataset to chosen items
(the theoretical algorithm of the model is shown in Fig. 1). The model finds sets of words that are close
in meaning (quasi-synonyms), the meanings of which can differ in several characteristics (for example,
in relation to the speaker) and change depending on the context. The closeness of the word to the term
can be interpreted either as equality («she» = «her» = «girl» = «wife» = ...) or as a word very well
associated with the term («she» = «girl» = «wife» =&gt; husband). Thus, only those words that are closely
interrelated in the cultural code can catch into associations. An example of the resulting associations is
shown in Table 1.</p>
      <p>Table 1
Semantic associations to the words «freedom», «democracy», «Internet»</p>
      <p>Liberty</p>
      <p>Liberty
('liberalism',
0.7421742081642151),</p>
      <p>('acting_power',
0.7411474585533142),</p>
      <p>('civil_society',
0.7408543229103088)</p>
      <p>Democracy
('vertical',
0.8762210607528687),</p>
      <p>('scrap',
0.8600466251373291),</p>
      <p>('dictatorship',
0.8596632480621338),</p>
      <p>('mentality',
0.8592602610588074)</p>
      <p>People most often associate the term «democracy» with opposition. The next logical link from this
word leads to «communism». Thus the evidence base for discussions around democracy is the previous
political system of our country. Obviously the understanding of the term is reduced to cultural and
social contexts colored by national history. The words «equality» and «develop» frequently appear in
conversations on this topic. This fact can probably be classified as hopes for a brighter future. It is
noteworthy that the adjective «putinskii» (the time of something in association to the period of Putin's
presidential term) appears in the seven most closely related terms. It strong links the discussion of
democracy with the current agenda, because this word clearly indicates a non-abstract line of
reasoning).</p>
      <p>We also investigated the reflection of the agenda through collocations. A collocation is a phrase that
has signs of a syntactically and semantically integral unit (stable phrases). Highlighting of them can
help delineate the social and political tendencies of the social macro groups. For example, throughout
the entire data collection (more than 500 thousand messages), «Russia» most often occurs with the word
«president»; such phrases as «Russians forward» and «Putin is the president» have shown themselves
as stable collocations. Below is an example of identified collocations (Table 2).
'freedom of speech',
'deprivation of freedom',
'restriction freedom',
'release from prison.',
'right to freedom',
'internet freedom'</p>
      <p>the Internet
'bad_internet',
'sovereign_internet',
'internet_freedom',</p>
      <p>'free_internet',
'internet_access',
'internet_passport'</p>
      <p>The same terms as in previous example were taken for clearly interpretation of the results.
Identification of stable collocations complements the ability to assess the social and cultural landscapes
by the language models. If in the above example the term «liberty» was associated exclusively with
criminal liability and offenses, then when searching for collocations, topics appeared that interest people
most likely in connection with the term «democracy». However, there are no stable phrases with the
term "democracy" in this case of text analysis, while at the previous step of the study, tendencies were
identified. At the same time, the detection bounds of the term "Internet" in this way gives good results
and it could be used to deep understanding the public mood.</p>
      <p>
        Multidimensional space visualizations of word vectors can help in interpreting relationships between
word embeddings. Figure 4 presents the visualization of the results described above for associative
bounds to the words «liberty», «democracy», «Internet». The method of nonlinear dimensionality
reduction (T-SNE) [
        <xref ref-type="bibr" rid="ref13">13</xref>
        ] was used for this purpose. The basic principle of t-SNE is to reduce the pairwise
distance between points while maintaining their relative position. Thus the algorithm constructs a
probability distribution over pairs of high-dimensional objects in such a way that similar objects are
assigned a higher probability while dissimilar points are assigned a lower probability. It becomes
possible to map high-dimensional data to a low-dimensional space, while the location structure of the
neighboring points is saved.
      </p>
      <p>Information about semantic correlations of the texts has been received by visualizing grouped data.
The figure demonstrates that vector representations of words fix the semantic relations between such
categories as the political system of the country, gender stereotypes, and even there are clearly seen the
associations of swear words with discussions of dissatisfaction with that or another phenomenon, and
etc. This kind of analysis provides direct information about cultural biases based on mathematical
apparatus, that is, with a certain accuracy and impartiality. In developing this strategy of text analysis
in its deeper condition, the most frequent words (the first 4 in frequency) were taken from each cluster,
which were detected on the first step of the research (Fig. 5).</p>
      <p>The presence of sufficiently clearly grouped semantic clouds shows the tendencies of public opinion.
In particular, the totality of the formed clusters and their content reveal the tendencies present in society
related to the separation of male and female roles, as well as attitudes towards national minorities; at
the same time, it is clearly seen the topics around COVID-19 (such as emergency medical services,
general news about the virus, discussion of hospitals).</p>
      <p>In terms of mathematical and computational linguistics the biases implies a shift from the selected
item to the left or to the right along the space coordinate axes. By way of illustration, the example of
the bias between the words «dictatorship» and «democracy» is shown in Figure 6. The X-axis
(horizontal) is set from «democracy» to «dictatorship»: words close in meaning to democracy (within
the studied texts) are on the left, and words similar to the word «dictatorship» are on the right. It was
decided to use «citizen» as the anchor word.</p>
      <p>It turned out that «citizen» is a very good choice of the anchor word, because its position (in the
middle of the projection, zero mark on the X-axis) indicates the neutrality of the term within the context
of our research. The words that are attracted to the pole of the word «democracy» (the left of the zero
mark on the X-axis) are outlined in green for convenience; words that are semantically connected with
«dictatorship» (right) are purple. Accordingly, the closer a word is to the left edge of the x-axis, the
more clearly it illustrates public attitudes toward «democracy». Y-axis displays the spread of words in
their ideological differences and helps to detect two semantic groups that characterize this phenomenon
in the public consciousness. On the one hand, an opinion clearly emerges in the mass consciousness
that democracy is established with the active participation of society in this process (all words that fall
into a significant sample, such as «person», «manifesto», «activist», are easily summarized in the
category «civil society»). On the other hand, the words «art», «scientist», «peace» and «freedom» can
also be highlighted as markers of the general idea of what democracy provides. Words that are «drawn»
to the right side (to «dictatorship») are «censorship», «church», «raise the retirement age», «taxes».
Obviously the clearly expressed attitude to the term is seen. Cultural biases of meanings between
synonymous words become convenient to trace due to this item arrangement in space. For example,
«police» - «cop» and «reform» - «law». If «police» is an attribute of a democratic society, then «cop»
refers to a dictatorship in Russian language; «reform» is associated in the public perceptions with
democracy, and the phrases with words «law» and «bad law» appear for the dictatorship.</p>
    </sec>
    <sec id="sec-5">
      <title>5. Conclusion</title>
      <p>Examples of aggressive cultural biases (although they have been identified) are deliberately not
shown in the results. The purpose of this paper is to describe the potential of the method without deep
analysis of specific stereotypes and public opinion. Thus, our experiments demonstrate that the method
is applicable to interpret cultural biases, which are formed in public consciousness by active using of
social media. It is important to consider a number of factors before using statistical language models,
such as the definition of the subject and functional boundaries of the object under study, the nature of
the object under study and possible linguocultural consequences of its use, the detection the role of the
object in language (natural language as a repository of cultural code), that determines its place in the
system of linguacultural universals. An important application of this method can be the identification
of aggression in social groups through text data.</p>
    </sec>
    <sec id="sec-6">
      <title>6. References</title>
    </sec>
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