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Based on insights from previous research, Chapter 4 introduces the language and complex interactional structure of video game interaction, including both online and offline elements. While the chapter identifies multiple combinations and configurations of gaming interaction which are available to children, most research studies are focused on co-located collaborative gaming, where children game side by side rather than at a distance. The chapter develops an analytical framework based on conversation analysis principles, which is applicable to most games, and which is the basis for analysis of Minecraft text chat in Chapter 5. This framework considers interactivity as a social rather than technical accomplishment, to assess videogames’ potential to promote children’s learning through interaction. This chapter includes an analysis of the language used when co-present gamers play face-to-face, which reveals that despite its interactional complexity, gaming language is often linguistically limited, as imperative forms, instructions, exclamations and interjections constitute most of the language used by gamers. This language may however be valuable to children for game-related problem solving and relationship building. It is also an opportunity for authentic language practice on specific language learning objectives where gamers are using a second language.
In Chapter 10, we discuss problem solving and decision making in groups. We explore some of the advantages and disadvantages of problem solving and decision making in groups. We discuss the factors that promote and discourage groupthink. We discuss basic problem solving using a variety of different approaches including the Rational Problem-Solving Process, the Pareto system, Nominal Group Technique, and several others.
Chapter 1 introduces the reader to many of the topics and concepts that will be discussed in the book. The concept of a group and what differentiates it from a team, or a simple gathering of people is discussed. Additionally, the influence of social media on group establishment and membership is explored, along with a brief introduction to many other concepts. The chapter is intended to draw the reader in and to set the stage for much further and deeper investigation and discussion of the contents of the chapters that follow.
This scoping review aimed to investigate the communication strategies utilized by children who acquire a minority language (L1) and subsequently learn a community language (L2) during what is commonly referred to as the “silent period.” Electronic database searches were conducted using keywords such as “silent period” and “bilingual children,” resulting in the inclusion of 40 studies in the review. The findings revealed that emergent bilingual children utilize various communication strategies, including nonverbal communication, private speech, and their L1, to communicate within classroom environments. The findings shed light on the adaptability of emergent bilingual children during early stage of L2 acquisition. Furthermore, our review provides information about the classroom contexts such as teacher support and peer interactions where children develop their L2 skills. From a clinical perspective, recognizing these strategies and classroom contexts could significantly enhance the screening process for emergent bilingual children.
Design problems are wicked in nature. Wicked problems are difficult to understand, formulate and solve. The literature focuses mainly on the characteristics of wicked problems, very little is available to how wicked problems (synonymous to ill-structured) should be formulated to make them well structured. Assessment of wickedness can help designers formulate problems into well-structured. This work proposes a metric for (lack of) structuredness as a measure for the degree to which a design problem is ill-structured. A Delphi-based method as benchmark for validating the metric is also proposed.
Problem-based Learning is an established learner-centred pedagogical approach for developing skills and competencies. This paper presents the evolutionary development of a Massive Open Online Course, titled "Design for the Real World: A Problem-based Learning Approach", with the aim to empower learners to independently pursue problem-based inquiry using design methods and tools, thereby fostering creativity and life-long learning.
Aha! experiences are often very well recalled. The idea of insight leaving an indelible mark on memory was put forward by the Gestalt psychologists, yet has remained under-studied. This chapter provides an overview the existing empirical evidence for an insight memory advantage and possible explanations for why insight enhances memory. Several studies have focused on the phenomenological aspect of insight by showing that solutions associated with Aha! experiences are remembered better than those without, even after delays of up to two weeks. Confidence (i.e., a metacognitive reaction) and pleasure (i.e., an affective reaction) were also shown to play a role. On the other hand, there could also be a potential association between solution processes involving restructuring (i.e., the cognitive aspect of insight) and better memory. At present a clearer role is seen for the phenomenological effects of insight experiences on memory, but more work is needed that explores both phenomenological and cognitive aspects of insight in the same studies.
In this chapter, we argue that differences in problem-solving experiences can be traced to differences in the activation of brain structures involved in the unconscious processing of information (what we refer to as “the backstage”). Scientists commonly distinguish between two major types of problem-solving experiences: via insight and via analysis. Three properties are often mentioned when describing how insight solutions differ from analytic solutions: (1) Solvers are unable to report much of the processing that leads to the solution which comes to mind in an off–on manner; (2) Solvers experience their solutions together with a feeling of pleasure and reward; (3) Solutions via insight feel correct and they actually are. This is captured by a distinctive response: the Aha! This chapter focuses on these three properties and argues that unconscious processes are important for problem-solving in general, but especially important for insight experiences because most of the processing that leads to the solution happens below awareness. It also argues that the positive affect associated with insight serves an adaptive function.
Insight experiences are powerful: They feel true, they are remembered, and they can shift our decisions and our beliefs. Feelings of insight are also accurate most of the time. However, recent work shows that it is possible to systematically induce false insights and even misattribute our Aha! moments to make false facts seem true. Insights, therefore, seem to be adaptive on average but error prone. This chapter suggests that these results can be integrated by thinking of insights as a metacognitive heuristic for selecting ideas from the stream of consciousness (dubbed the “Eureka heuristic”), reviews key findings about the accuracy of insights and where and why insights go wrong, and discusses implications for our understanding of the development of delusions, false beliefs, and misinformation. Ultimately, understanding the role that feelings of insight play in human cognition may make us better decision-makers in an uncertain world.
Although insight experiences are recognized to be cognitively, physiologically, and neurologically distinct from other forms of reasoning and problem solving, it also appears that the experience of insight is not the same for all types of individuals or in all circumstances. Researchers in our lab and others have begun to examine the individual differences associated with the insight experience: what makes certain individuals more likely to report solving problems insightfully, and how might the subjective experience of insight differ among people according to their underlying psychological and neurobiological characteristics? Research demonstrates that the tendency to experience insight during problem-solving varies among individuals as a function of transient differences in one’s psychological state as well as stable, trait-like differences in neurocognitive dynamics. We argue that an individual differences approach can further disambiguate the components of insight on the behavioral and neural levels and help us understand when, and for whom, such experiences are most likely to occur, and how they may affect us depending on our individual motivations, goals, and underlying neurobiology.
This chapter posits a prepared mind as key to later insight experiences. Following Wallas's (1926) four-stage model, preparation through failures experienced during initial solution attempts anticipates opportunities. At the time of impasse, solvers can predict necessary solution qualities by thinking through failed attempts at a more abstract level. These predictive features (Johnson & Seifert, 1994) describe needed resources, missing information, and solution characteristics, and are “seeded” into memory with the unsolved problem. Later, during incubation, attended features in the current context spontaneously retrieve the unsolved problem from memory, called opportunistic assimilation. This conscious reminding of the unsolved problem is the experience of sudden insight (Aha!). The surprised solver must then puzzle through why the current contextual features brought the problem back to mind and, in the process, restructure the old and new representational pieces into a novel solution. In this account, the insight process depends on effortful thinking during both preparation and illumination, but the incubation stage involves the simple process of associative memory as the source of insight experiences.
First, how does the human cognitive system give rise to gestures? A growing body of literature suggests that gestures are based in people’s perceptual and physical experience of the world. Second, do gestures influence how people take in information from the world? Research suggests that producing gestures modifies producers’ experience of the world in specific ways. Third, does externalizing information in gestures affect cognitive processing? There is evidence that expressing spatial and motoric information in gestures has consequences for thinking, including for memory and problem solving. Fourth, how do gestures influence other people’s cognitive processing? Research indicates that gestures can highlight certain forms of information for others’ thinking, thus engaging social mechanisms that influence cognitive processing. Gestures are closely tied to action, and they reveal how producers schematize information in the objects, tasks, events, and situations that they gesture about. In brief, gestures play an integral role in cognition, both for gesture producers and for gesture recipients, because they are actions of the body that bridge the mind and the world.
Edited by
William J. Brady, University of Virginia,Mark R. Sochor, University of Virginia,Paul E. Pepe, Metropolitan EMS Medical Directors Global Alliance, Florida,John C. Maino II, Michigan International Speedway, Brooklyn,K. Sophia Dyer, Boston University Chobanian and Avedisian School of Medicine, Massachusetts
Providing medical care during a mass event requires important situational awareness and preparation. Significant planning and relationship building provides a foundation for creating an operational outline, and establishing crowd dynamics and expectations for related medical activities. Collaboration with stakeholders will provide insight into the operations of various other event management entities, and allows for more seamless operations during the event. Once an operational plan has been established and circulated, the event medical team can be prepared for the expected external and crowd conditions and respond appropriately, while maintaining vigilance for any emergency that may arise. Contingency planning is key for the medical team to have appropriate emergency response defaults. Special attention is also needed on communications strategies for real-time intel, information dissemination, and crowd management. Once the event reaches its end, it is important to establish stand-down procedures to be followed as the crowd disperses to ensure an orderly event closure. After action reports can provide valuable insights for future crowd management.
Charles S. Mansueto, Behavior Therapy Center of Greater Washington, Maryland,Suzanne Mouton-Odum, Psychology Houston, PC - The Center for Cognitive Behavioral Treatment, Texas,Ruth Goldfinger Golomb, Behavior Therapy Center of Greater Washington, Maryland
The final chapter focuses on many of the common obstacles that may surface and impede ComB therapy. A range of possible solutions are provided to address issues such as when a BFRB is comorbid with attention deficit hyperactivity disorder, depression, obsessive compulsive disorder, and anxiety, as well as with features such as perfectionism, low motivation, ambivalence, readiness for treatment, and lack of adherence to therapy recommendations. Also covered in this chapter are common mistakes made by therapists, issues of relapse prevention and possible future directions for maximizing the effectiveness and efficiency of ComB treatment.
Charles S. Mansueto, Behavior Therapy Center of Greater Washington, Maryland,Suzanne Mouton-Odum, Psychology Houston, PC - The Center for Cognitive Behavioral Treatment, Texas,Ruth Goldfinger Golomb, Behavior Therapy Center of Greater Washington, Maryland
This chapter describes the process of ComB treatment implementation, in which the “active ingredients” are introduced that that are chosen to reduce the power of antecedent cues, to divert the individual’s ability to engage in their BFRB, and to provide alternative means for achieving reinforcing outcomes that encourage and perpetuate BFRB activity. The process of introducing appropriate interventions is described in detail, with emphases on fitting interventions to each client’s needs and preferences. The reader is guided through methods for choosing specific interventions, monitoring their effectiveness, and making decisions about modifying the intervention plan as therapy moves forward. The SCAMP formulation is revisited to illustrate how specific interventions within each of the five domains draw upon tried-and-true cognitive behavioral techniques that can be incorporated in problem-solving common difficulties encountered within each domain.
This chapter describes how romantic partners navigate the disagreements that necessarily result from their interdependence and how partners recover when they intentionally or unintentionally hurt each other. Specifically, it reviews the ways in which goals and desires conflict to produce disagreements and how disagreements provide a diagnostic situation in which people make inferences about their partner’s thoughts, feelings, and commitment. Next, it describes typical conflict topics, how conflicts tend to be experienced, and typical conflict prevalence over the course of a romantic relationship. Next, the chapter covers how people manage interpersonal conflicts and highlights specific conflict behaviors that are typically destructive (e.g., hostility, withdrawal) and specific conflict behaviors that are typically constructive (e.g., intimacy, problem solving), as well as how the adaptiveness of conflict behaviors can change depending on the situation. Finally, this chapter reviews how partners can recover from destructive conflicts and other relationship transgressions by accommodating rather than retaliating, sacrificing, and forgiving.
This chapter explains the interventions that are used to repair and strengthen relationships. It starts with a description of common evidence-based therapeutic interventions, including forms of behavioral couple therapy and emotionally focused couple therapy. Then it reviews the evidence supporting short-term and long-term benefits of therapeutic interventions to improve relationship functioning. The second half of this chapter reviews educational interventions that can strengthen relationships and keep them from becoming distressed, including PREP, a widely used and adapted couple relationship education program. The chapter concludes with a discussion of how therapeutic and educational interventions can be strengthened by increasing their accessibility and by adapting them for minority (e.g., same-sex) couples.
'Encouraging Innovation: Cognition, Education, and Implementation' is of interest to people who desire to become more innovative in their daily lives and careers. Part I discusses the cognitive and social skills required for innovation – reasoning, problem solving, creativity, group decision making, and collaborative problem solving. The second part discusses education – the development of cognitive skills and talent, application of relevant learning theories, methods and curricula for enhancing creativity, creativity across disciplines, and design education. Part III discusses the implementation of these skills in society – the transition from theory to practice, business innovation, social innovation, and organizational support. Whereas business innovation is related to commercialization, market demands, and profitability, social innovation addresses fulfilling social needs and public demands. Organizational support for innovation occurs at international, national, agency, and regional levels.
This study explores interprofessional collaboration among medical and non-medical personnel planning and implementing international crisis health and medical relief efforts, and how disciplinary and professional background influences these activities.
Methods:
This study analyzes semi-structured interviews with individuals involved in organizations medical or health services to the Ebola epidemic in West Africa (2014-2016) or the 2015 Nepal earthquake.
Results:
Disciplinary background, sometimes coupled with organization role, shaped how relief workers engaged in the process of planning and implementing crisis medical relief. There were 3 thematic areas where these differences emerged: issue focus, problem -solving approaches, and decision-making approaches. Solutions from the field emerged as a fourth theme.
Conclusions:
The study demonstrates medical relief required collaboration across medical and non-medical professions and highlights the importance of relief workers’ disciplinary background in shaping the planning and implementation of crisis medical relief. Successful collaboration requires that people involved in crisis relief communicate the relevance of their own expertise, identify limits of their own and others’ disciplinary perspective(s), seek out strengths in others’ expertise, and can identify/ respond appropriately to others who do not see their own disciplinary limits, as well as learn these skills before engaging in relief.
In this paper, we show that the presence of numbers in a problem tempts people to perform mathematical operations even when the correct answer requires no math, which we term “mindless math”. In three pre-registered studies across two survey platforms (total N = 3,193), we investigate how mindless math relates to perceived problem difficulty, problem representation, and accuracy. In Study 1, we show that increasing the numeric demands of problems leads to more mindless math (and fewer correct answers). Study 2 shows that this effect is not caused by people being wary of problems that seem too easy. In Study 3, we show that this effect is robust over a wider range of numeric demands, and in the discussion we offer two possible mechanisms that would explain this effect, and the caveat that at even harder levels of numeric demands the effect may invert such that much harder math increases accuracy relative to moderately hard math.