Mental time travel

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In psychology, mental time travel is the capacity to mentally reconstruct personal events from the past (episodic memory) as well as to imagine possible scenarios in the future (episodic foresight/episodic future thinking). The term was coined by Thomas Suddendorf and Michael Corballis, [1] building on Endel Tulving's work on episodic memory. [2] (Tulving proposed the alternative term chronesthesia. [3] )

Contents

Mental time travel has been studied by psychologists, cognitive neuroscientists, philosophers and in a variety of other academic disciplines. [4] [5] Major areas of interest include the nature of the relationship between memory and foresight, [6] [7] the evolution of the ability (including whether it is uniquely human or shared with other animals), [8] [9] its development in young children, [10] [11] its underlying brain mechanisms, [12] [13] as well as its potential links to consciousness, [14] the self, [15] and free will. [16]

Overview, terminology, and relationship to other cognitive capacities

Declarative memory refers to the capacity to store and retrieve information that can be explicitly expressed, and consists of both facts or knowledge about the world (semantic memory) and autobiographical details about one's own experiences (episodic memory). [17] Tulving (1985) originally suggested that episodic memory involved a kind of 'autonoetic' ('self-knowing') consciousness that required the first-person subjective experience of previously lived events, whereas semantic memory is associated with 'noetic' (knowing) consciousness but does not require such mental simulation. [18]

It has become increasingly clear that both semantic and episodic memory are integral for thinking about the future. [19] [20] Mental time travel, however, specifically refers to the 'autonoetic' systems, and thus selectively comprises episodic memory and episodic foresight.

The close link between episodic memory and episodic foresight has been established with evidence of their shared developmental trajectory, [21] similar impairment profiles in neuropsychiatric disease and in brain damage, [22] [23] [24] phenomenological analyses, [25] and with neuroimaging. [26] Mental time travel may be one of several processes enabled by a general scenario building or construction system in the brain. [22] [27] [28] This general capacity to generate and reflect on mental scenarios has been compared to a theatre in the mind that depends on the working together of a host of components. [13]

Investigations have been conducted into diverse aspects of mental time travel, including individual differences relating to personality, [29] its instantiation in artificial intelligence systems, [30] and its relationship with theory of mind [31] and mind-wandering. [32] The study of mental time travel in general terms is also related to – but distinct from – the study of the way individuals differ in terms of their future orientation, [33] time perspective, [34] and temporal self-continuity. [35]

Brain regions involved

Various neuroimaging studies have elucidated the brain systems underlying the capacity for mental time travel in adults. Early fMRI studies on the topic revealed a number of close correspondences between remembering past experiences and imagining future experiences in brain activity. [26]

fMRI mapping of brain regions

Addis et al. conducted an fMRI study to examine neural regions mediating construction and elaboration of past and future events. [36]

The elaboration phase, unlike the construction phase, has overlap in the cortical areas comprising the autobiographical memory retrieval network. In this study, it was also found that the left hippocampus and the right middle occipital gyrus were significantly activated during past and future event construction, while the right hippocampus was significantly deactivated during past event construction. It was only activated during the creation of future events.[ citation needed ]

Episodic future thinking involves multiple component processes: retrieval and integration of relevant information from memory, processing of subjective time, and self-referential processing. [37] D'Argembeau et al.'s study found that the ventral medial prefrontal cortex and posterior cingulate cortex are the most activated areas when imagining future events that are relevant to one's personal goals than to unrelated ones. This shows that these brain regions play a role in personal goal processing, which is a critical feature of episodic future thinking.[ citation needed ]

Brain regions involved in the 'what' and 'where' of an event

Cabeza et al. conducted a positron emission tomography (PET) scan study on a group of human test subjects to identify the brain regions involved in temporal memory, which is based on a linear progression of events. Since 'recollecting a past episode involves remembering not only what happened but also when it happened', PET scans were used to find the areas of the brain that were activated when trying to remember a certain word in a sequence. [38] The results show that temporal-order memory of past events involves the frontal and posterior brain regions and item retrieval shows neural activity in the medial temporal and basal fore brain regions. [39]

Evolution and human uniqueness

The ability to travel mentally in time – especially into the future – has been highlighted as a potential prime mover in human evolution, enabling humans to prepare, plan and shape the future to their advantage. [8] However, the question of whether or to what extent animals other than human beings can engage in mental time travel has remained controversial. [40] [41]

One proposal, the Bischof-Köhler hypothesis, [1] [42] [43] [44] posits that non-human animals cannot act upon drive states they do not currently possess, for example seeking out water while currently fully quenched. Other proposals suggest that different species may have some capacities, but are limited because of shortcomings in a range of component capacities of mental scenario building and imagination. [19] A number of studies have claimed to have demonstrated mental time travel in animals including, most notably, various great apes, crows, ravens, and western scrub jays, [45] [46] [47] [48] but these have been subjected to a number of criticisms and simpler alternative explanations have been proposed for the results. [49] [50] [51] This debate is ongoing. [8]

If mental time travel is unique to humans, then it must have emerged over the last 6 million years since the line leading to modern humans split from the line leading to modern chimpanzees. Perhaps the first hard evidence for the evolution of mental time travel in humans comes in the form of Acheulean bifacial handaxes associated with Homo erectus. Acheulean tools are complex and appear to have required advanced planning to create. [52] [53] There is also evidence that they were often crafted in one location and then taken elsewhere for repeated use. [54]

A number of important adaptive functions have been identified that rely to some degree on the capacity to remember the past and imagine the future. [55] [56] These functions include predicting future emotional reactions (affective forecasting), [57] deliberate practice, [58] intertemporal choice, [59] navigation, [60] prospective memory, [61] counterfactual thinking, [62] [63] and planning. [64]

Episodic-like memory and planning for the future in great apes

Osvath et al. conducted a study on apes to show that they have the ability of foresight. The study consisted of testing for self-control, associative learning, and envisioning in chimpanzees and orangutans through a series of experiments. [65] Critics questioned whether these animals truly exhibited mental time travel, or whether it was associative learning that caused them to behave as they did. The Bischof-Kohler hypothesis says that animals cannot anticipate future needs, and this study by Osvath tried to disprove the hypothesis.[ citation needed ]

The scientists showed that when the apes were presented with a food item in conjunction with a utensil that could be used to actually eat that particular food, these animals chose the utensil instead of food. They anticipated a future need for the utensil that overcame the current want for just a food reward. This is an example of mental time travel in animals. It was not a result of associative learning, that they actually chose the utensil instead of the food reward, since the scientists ran another experiment to account for that. Other examples, such as food caching by birds, may be examples of mental time travel in non-humans. Even survival instinct by certain animals such as elephants, in response to imminent danger, could involve mental time travel mechanisms.[ citation needed ]

Another study to show that great apes have the ability of foresight was conducted by Martin-Ordas G. et al. These scientists were able to show that "apes remember in an integrated fashion what, where and when" a particular event had happened. [66] Two experiments were conducted in this study, the first being an investigation of the content of the memories of apes i.e. could these animals remember when and where two types of food they were shown before are hidden. The second experiment explored the structure of the memories. It was found that the apes' memories were formed in an integrated what–where–when structure. All these findings suggest that it is not instinctive or learning predispositions that made the animals behave the way they did, but rather that they have the ability to mentally time travel. However, comparative psychologists are divided about this conclusion. [8]

Episodic-like memory in western scrub-jays

In their study to show that birds exhibit episodic-like memory, Clayton et al. used 3 behavioral criteria: content, structure, and flexibility, to decide whether the food caching habits of these birds were evidence of their ability to recall the past and plan for the future. [67] Content involved remembering what happened based on a specific past experience. Structure required the formation of a 'what-where-when' representation of the event. Finally, flexibility was used to see how well the information could be organized and re-organized, based on facts and experiences. Mental time travel involves the use of both episodic future thinking and semantic knowledge. This study also contradicts the Bischof-Kohler hypothesis by showing that some animals may mentally time travel into the future or back to the past. However this interpretation has remained controversial. [8]

Development in children

Studies into the development of mental time travel in infancy suggest that the involved component processes come online piece by piece. Most of the required psychological subcomponents appear to be available by approximately age four. [10] This includes the fundamental capacity to prepare for two mutually exclusive possible future events, which appears to develop between the ages of 3 and 5. [68]

Two and three-year-old children can report some information about upcoming events, and by ages four and five, children can talk more clearly about future situations. [69] However, there is concern that children may understand more than they can articulate, and that they may say things without fully understanding. Thus, researchers have tried to examine future-oriented action. [70] A carefully controlled study found that four-year-olds could already remember a specific problem they saw in a different room sufficiently enough to prepare for its future solution. [71] These results suggest that children by the end of the preschool years have developed some fundamental capacity for foresight, capacities that continue to develop throughout childhood and adolescence. [72]

Measurement

Studies of mental time travel require the measurement of both episodic memory and episodic foresight.

Episodic memory

Episodic memory is typically measured in human adults by asking people to report or describe past events that they had experienced. Many studies provide participants with information at one point in the study and then assess their memory for this information at a later point in the study. The advantage of these studies is that they allow the accuracy of recall to be assessed. However, Cheke and Clayton found that such different measurements of memory do not mutually correspond enough and may therefore capture different facets of memory. [73] A more general limitation with studies in this field is that they fail to capture people's actual memories for real-life events, just like in other studied animals.

Many studies focus on asking people to recall episodes from their own lives. Some of them attempt to verify the accuracy of recall by comparing participants' memories to those of family, friends or relatives who experienced the same event, [74] or in some cases by comparing peoples' memories of an event to public information about the event. [75] However it is not always easy to verify the accuracy of recall, so many measures of episodic memory do not do this, focusing instead on aspects of people's verbal descriptions of their memories.

Three commonly used measures that do not verify the accuracy of people's memories are as follows:

  1. Dritschel et al. adapted the Controlled Oral Word Association Test to assess the fluency with which people recall personal autobiographical episodes in specific given time periods (e.g., last week, last year, last 5 years, etc.) in a specific time limit (e.g., 1 min). [76]
  2. Baddeley and Wilson used a 4-point scale with which to rate participants' memories as (3) specific, (2) intermediate, (1) general, and (0) nil, based on the level of the detail provided in their description. [77]
  3. Levine and colleagues designed the Autobiographical Interview to distinguish between episodic and semantic components of episodic memories based on participants' verbal descriptions. [78]

Episodic foresight

Miloyan and McFarlane performed a systematic review of episodic foresight measurement instruments used in human adults and found that most of these measures were adapted from measures of episodic memory. [79]

  1. The measure by Dritschel et al. [76] based on the Controlled Oral Word Association Test was adapted by MacLeod and colleagues to assess episodic foresight. [80]
  2. Williams et al. adapted the 4-point scale from Baddeley and Wilson to assess episodic foresight. [81]
  3. The Autobiographical Interview by Levine and colleagues which was designed to distinguish the episodic and semantic components of episodic memories was adapted by Addis and colleagues to measure episodic foresight. [82]

The authors of the systematic review noted that a limitation of all such episodic foresight measures is that they do not compare people's simulation of future events to objective preparatory behaviors or to the actual occurrence of future events. [79] Thus, none of the available measures verify the accuracy or relevance of people's imaginings. This is in contrast to studies of episodic foresight in children and animals that require participants to demonstrate episodic foresight with behaviors to compensate for their lack of verbal ability.

See also

Related Research Articles

Cognitive psychology is the scientific study of mental processes such as attention, language use, memory, perception, problem solving, creativity, and reasoning. Cognitive psychology originated in the 1960s in a break from behaviorism, which held from the 1920s to 1950s that unobservable mental processes were outside the realm of empirical science. This break came as researchers in linguistics and cybernetics, as well as applied psychology, used models of mental processing to explain human behavior. Work derived from cognitive psychology was integrated into other branches of psychology and various other modern disciplines like cognitive science, linguistics, and economics. The domain of cognitive psychology overlaps with that of cognitive science, which takes a more interdisciplinary approach and includes studies of non-human subjects and artificial intelligence.

Long-term memory (LTM) is the stage of the Atkinson–Shiffrin memory model in which informative knowledge is held indefinitely. It is defined in contrast to sensory memory, the initial stage, and short-term or working memory, the second stage, which persists for about 18 to 30 seconds. LTM is grouped into two categories known as explicit memory and implicit memory. Explicit memory is broken down into episodic and semantic memory, while implicit memory includes procedural memory and emotional conditioning.

<span class="mw-page-title-main">Limbic system</span> Set of brain structures involved in emotion and motivation

The limbic system, also known as the paleomammalian cortex, is a set of brain structures located on both sides of the thalamus, immediately beneath the medial temporal lobe of the cerebrum primarily in the forebrain.

Recall in memory refers to the mental process of retrieval of information from the past. Along with encoding and storage, it is one of the three core processes of memory. There are three main types of recall: free recall, cued recall and serial recall. Psychologists test these forms of recall as a way to study the memory processes of humans and animals. Two main theories of the process of recall are the two-stage theory and the theory of encoding specificity.

<span class="mw-page-title-main">Animal cognition</span> Intelligence of non-human animals

Animal cognition encompasses the mental capacities of non-human animals, including insect cognition. The study of animal conditioning and learning used in this field was developed from comparative psychology. It has also been strongly influenced by research in ethology, behavioral ecology, and evolutionary psychology; the alternative name cognitive ethology is sometimes used. Many behaviors associated with the term animal intelligence are also subsumed within animal cognition.

Semantic memory refers to general world knowledge that humans have accumulated throughout their lives. This general knowledge is intertwined in experience and dependent on culture. New concepts are learned by applying knowledge learned from things in the past.

Episodic memory is the memory of everyday events that can be explicitly stated or conjured. It is the collection of past personal experiences that occurred at particular times and places; for example, the party on one's 7th birthday. Along with semantic memory, it comprises the category of explicit memory, one of the two major divisions of long-term memory.

Endel Tulving was an Estonian-born Canadian experimental psychologist and cognitive neuroscientist. In his research on human memory he proposed the distinction between semantic and episodic memory. Tulving was a professor at the University of Toronto. He joined the Rotman Research Institute at Baycrest Health Sciences in 1992 as the first Anne and Max Tanenbaum Chair in Cognitive Neuroscience and remained there until his retirement in 2010. In 2006, he was named an Officer of the Order of Canada (OC), Canada's highest civilian honour.

Explicit memory is one of the two main types of long-term human memory, the other of which is implicit memory. Explicit memory is the conscious, intentional recollection of factual information, previous experiences, and concepts. This type of memory is dependent upon three processes: acquisition, consolidation, and retrieval.

The Levels of Processing model, created by Fergus I. M. Craik and Robert S. Lockhart in 1972, describes memory recall of stimuli as a function of the depth of mental processing. More analysis produce more elaborate and stronger memory than lower levels of processing. Depth of processing falls on a shallow to deep continuum. Shallow processing leads to a fragile memory trace that is susceptible to rapid decay. Conversely, deep processing results in a more durable memory trace. There are three levels of processing in this model. Structural processing, or visual, is when we remember only the physical quality of the word. Phonemic processing includes remembering the word by the way it sounds. Lastly, we have semantic processing in which we encode the meaning of the word with another word that is similar or has similar meaning. Once the word is perceived, the brain allows for a deeper processing.

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Retrospective memory is the memory of people, words, and events encountered or experienced in the past. It includes all other types of memory including episodic, semantic and procedural. It can be either implicit or explicit. In contrast, prospective memory involves remembering something or remembering to do something after a delay, such as buying groceries on the way home from work. However, it is very closely linked to retrospective memory, since certain aspects of retrospective memory are required for prospective memory.

Foresight is the ability to predict, or the action of predicting, what will happen or what is needed in the future. Studies suggest that much of human thought is directed towards potential future events. Because of this, the nature and evolution of foresight is an important topic in psychology. Thinking about the future is studied under the label prospection.

Autonoetic consciousness is the human ability to mentally place oneself in the past and future or in counterfactual situations, and to thus be able to examine one's own thoughts.

<span class="mw-page-title-main">Memory</span> Faculty of mind to store and retrieve data

Memory is the faculty of the mind by which data or information is encoded, stored, and retrieved when needed. It is the retention of information over time for the purpose of influencing future action. If past events could not be remembered, it would be impossible for language, relationships, or personal identity to develop. Memory loss is usually described as forgetfulness or amnesia.

In psychology, prospection is the generation and evaluation of mental representations of possible futures. The term therefore captures a wide array of future-oriented psychological phenomena, including the prediction of future emotion, the imagination of future scenarios, and planning. Prospection is central to various aspects of human cognition and motivation. Daniel Gilbert (psychologist) and Timothy Wilson coined the term in 2007. It has since become a central area of enquiry in the cognitive sciences.

Episodic-like memory is the memory system in animals that is comparable to human episodic memory. The term was first described by Clayton & Dickinson referring to an animal's ability to encode and retrieve information about 'what' occurred during an episode, 'where' the episode took place, and 'when' the episode happened. This ability in animals is considered 'episodic-like' because there is currently no way of knowing whether or not this form of remembering is accompanied by conscious recollection—a key component of Endel Tulving's original definition of episodic memory.

<span class="mw-page-title-main">Bilingual memory</span>

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