Baddeley;
Eysenck; Anderson; Memory |
|
|
Book |
Page |
|
Topic |
|
|
Baddeley,
et.al.; Memory |
3 |
|
Theories serve to summarize our knowledge in a simple and structured way
and
help us to understand
what we know. |
|
|
Baddeley,
et.al.; Memory |
3 |
|
The aim of the present book is
to outline what we know of the psychology of memory. |
|
0 |
Baddeley,
et.al.; Memory |
4 |
|
In the 1930s, a German approach known as gestalt
psychology began attempting to apply ideas
developed in the study of perception to the understanding of human
memory. |
|
1 |
Baddeley,
et.al.; Memory |
5 |
|
People's cultural assumptions
about the world depend on internal representations that are referred to as schemas. |
|
1 |
Baddeley,
et.al.; Memory |
5 |
|
Schemas are
internal representations that explain how our knowledge of
the world is structured and influences the way in which new
information is stored and subsequently recalled. |
|
0 |
Baddeley,
et.al.; Memory |
7 |
|
In the early
1960s, investigators at
Bell Laboratories analyzed the fleeting visual memory system,
which subsequently became known as the iconic
memory. |
|
2 |
Baddeley,
et.al.; Memory |
9 |
|
Short-Term Memory and Working
Memory |
|
2 |
Baddeley,
et.al.; Memory |
9 |
|
Short-term memory -- a term applied to the retention of small amounts of material over
periods of a few seconds. |
|
0 |
Baddeley,
et.al.; Memory |
9 |
|
Short-term memory (STM) is not limited to verbal material, and has been studied
extensively for visual
and spatial information,
and much less extensively for smell and touch. |
|
0 |
Baddeley,
et.al.; Memory |
10 |
|
Long-Term Memory |
|
1 |
Baddeley,
et.al.; Memory |
10 |
|
Long-term memory makes a broad distinction between explicit or declarative memory and implicit or nondeclarative memory. |
|
0 |
Baddeley,
et.al.; Memory |
10 |
|
Explicit Memory |
|
0 |
Baddeley,
et.al.; Memory |
10 |
|
Explicit memory can be divided into two
categories,
semantic
memory
and episodic
memory. |
|
0 |
Baddeley,
et.al.; Memory |
11 |
|
Semantic memory refers to a knowledge of the world. It goes beyond
simply knowing the meaning of words and extends to
sensory attributes and includes general knowledge of how society works,
e.g. what to do
when you enter a restaurant. |
|
1 |
Baddeley,
et.al.; Memory |
12 |
|
Implicit Memory |
|
1 |
Baddeley,
et.al.; Memory |
14 |
|
Patient HM
became densely amnesic following brain injury to treat his intractable epilepsy. |
|
2 |
Baddeley,
et.al.; Memory |
14 |
|
HMs memory deficit was limited to episodic long-term
memory. |
|
0 |
Baddeley,
et.al.; Memory |
14 |
|
Neuroimaging Human Memory |
|
0 |
Baddeley,
et.al.; Memory |
15 |
|
Functional magnetic resonance
imaging (fMRI) scans have become an important source of data in psychology. |
|
1 |
Baddeley,
et.al.; Memory |
16 |
|
fMRI is safer than PET, being noninvasive of the body and not involving radioactivity. |
|
1 |
Baddeley,
et.al.; Memory |
16 |
|
Finer-grained temporal monitoring of brain activity is provided by the more recent development, magnetoencephalography (MEG), in which tiny magnetic forces generated by neurons within the brain are detected and located. The ordered
relationship in which different
brain areas respond can be recorded
very precisely. |
|
0 |
Baddeley,
et.al.; Memory |
19 |
|
Short-Term Memory |
|
3 |
Baddeley,
et.al.; Memory |
20 |
|
Memory Span |
|
1 |
Baddeley,
et.al.; Memory |
24 |
|
Free Recall |
|
4 |
Baddeley,
et.al.; Memory |
27 |
|
Phonological Loop |
|
3 |
Baddeley,
et.al.; Memory |
33 |
|
Visuospatial
Short-Term memory |
|
6 |
Baddeley,
et.al.; Memory |
33 |
|
Spatial
Short-Term Memory |
|
0 |
Baddeley,
et.al.; Memory |
36 |
|
Deficits in Verbal Short-Term Memory |
|
3 |
Baddeley,
et.al.; Memory |
37 |
|
Deficits in Visuospatial Short-Term Memory |
|
1 |
Baddeley,
et.al.; Memory |
39 |
|
Research studies have considered
the characteristics of various STM systems. |
|
2 |
Baddeley,
et.al.; Memory |
39 |
|
Verbal STM
has been shown to be influenced by phonological
similarity and by the length
of the words being retained. |
|
0 |
Baddeley,
et.al.; Memory |
39 |
|
The phonological
loop hypothesis
attempts to explain the findings within a broader working
memory framework by
assuming a temporary store and an articulatory rehearsal
process that can be interrupted by articulatory suppression. |
|
0 |
Baddeley,
et.al.; Memory |
39 |
|
Visual STM
can be divided into visual and spatial memory. |
|
0 |
Baddeley,
et.al.; Memory |
39 |
|
Memory for spatial location appears to show forgetting over a period of seconds, while memory for visual objects does not. |
|
0 |
Baddeley,
et.al.; Memory |
39 |
|
The number
of features an object
comprises does not seem to be obviously limited. |
|
0 |
Baddeley,
et.al.; Memory |
39 |
|
Visual and spatial components have been proposed as part of the visuospatial
sketchpad,
a component of working memory that is a counterpart of the phonological loop. |
|
0 |
Baddeley,
et.al.; Memory |
39 |
|
Neuropsychological studies have revealed the potential separation between verbal STM and both LTM and visual
STM. |
|
0 |
Baddeley,
et.al.; Memory |
41 |
|
Working Memory |
|
2 |
Baddeley,
et.al.; Memory |
44 |
|
Phonological Loop |
|
3 |
Baddeley,
et.al.; Memory |
44 |
|
Phonological loop -- the term applied by Baddeley
and Hitch to the component of their model
responsible for the temporary storage is speech-like information. |
|
0 |
Baddeley,
et.al.; Memory |
44 |
|
Visuospatial sketchpad -- a component of the Baddeley
and Hitch model that is assumed to be responsible
for the temporary maintenance of visual and spatial information. |
|
0 |
Baddeley,
et.al.; Memory |
49 |
|
Visuospatial Sketchpad |
|
5 |
Baddeley,
et.al.; Memory |
53 |
|
Central Executive |
|
4 |
Baddeley,
et.al.; Memory |
56 |
|
Episodic Buffer |
|
3 |
Baddeley,
et.al.; Memory |
58 |
|
The Baddeley Multicomponent Working Memory
Model (year 2000) (diagram) |
|
2 |
Baddeley,
et.al.; Memory |
58 |
|
Individual Differences in Working Memory |
|
0 |
Baddeley,
et.al.; Memory |
60 |
|
Theories of Working
Memory |
|
2 |
Baddeley,
et.al.; Memory |
60 |
|
Cowan's Embedded
Processess Theory |
|
0 |
Baddeley,
et.al.; Memory |
63 |
|
Long-term working memory |
|
3 |
Baddeley,
et.al.; Memory |
63 |
|
Neuroscience
of Working Memory |
|
0 |
Baddeley,
et.al.; Memory |
63 |
|
Single-cell recording approaches to working memory |
|
0 |
Baddeley,
et.al.; Memory |
64 |
|
Neuroimaging
Working Memory |
|
1 |
Baddeley,
et.al.; Memory |
69 |
|
Learning |
|
5 |
Baddeley,
et.al.; Memory |
76 |
|
Repetition and Learning |
|
7 |
Baddeley,
et.al.; Memory |
79 |
|
Implicit Learning |
|
3 |
Baddeley,
et.al.; Memory |
79 |
|
Classical Conditioning |
|
0 |
Baddeley,
et.al.; Memory |
81 |
|
Priming |
|
2 |
Baddeley,
et.al.; Memory |
82 |
|
Procedural Learning |
|
1 |
Baddeley,
et.al.; Memory |
85 |
|
Learning and Consciousness |
|
3 |
Baddeley,
et.al.; Memory |
86 |
|
Explaining Implicit Memory |
|
1 |
Baddeley,
et.al.; Memory |
86 |
|
Learning and the Brain |
|
0 |
Baddeley,
et.al.; Memory |
88 |
|
Implicit Learning in the Brain |
|
2 |
Baddeley,
et.al.; Memory |
88 |
|
Conditioning |
|
0 |
Baddeley,
et.al.; Memory |
89 |
|
Priming |
|
1 |
Baddeley,
et.al.; Memory |
90 |
|
Procedural Learning |
|
1 |
Baddeley,
et.al.; Memory |
93 |
|
Episodic Memory |
|
3 |
Baddeley,
et.al.; Memory |
106 |
|
Memory and the Brain |
|
13 |
Baddeley,
et.al.; Memory |
113 |
|
Semantic Memory and Stored
Knowledge |
|
7 |
Baddeley,
et.al.; Memory |
113 |
|
Master chess players have between 10,000 and 100,000
groups of pieces (chunks) stored in long-term memory. |
|
0 |
Baddeley,
et.al.; Memory |
113 |
|
Each chunk contains information about a given pattern of chess pieces on the board, and
these chunks help
players to relate a present game position to their knowledge
of previous chess
games and situations. |
|
0 |
Baddeley,
et.al.; Memory |
113 |
|
Semantic
Memory vs. Episodic Memory |
|
0 |
Baddeley,
et.al.; Memory |
114 |
|
Distinguish between semantic memory (general knowledge about the world) and episodic memory (memory for events
occurring at a specific time in a specific place). |
|
1 |
Baddeley,
et.al.; Memory |
114 |
|
In studies of patients with amnesia, researchers found there was an impairment of episodic memory in all cases, whereas many other
patients had only modest
problems with semantic
memory. |
|
0 |
Baddeley,
et.al.; Memory |
114 |
|
The impact of brain damage was much
greater on episodic than on the semantic memory, suggesting that the two types of memory are distinctly different from each
other. |
|
0 |
Baddeley,
et.al.; Memory |
115 |
|
There are important
differences between semantic and episodic memory. |
|
1 |
Baddeley,
et.al.; Memory |
115 |
|
There are many
patients who show more retrograde amnesia for episodic memory than to semantic memory, but also many who showed the opposite pattern. |
|
0 |
Baddeley,
et.al.; Memory |
115 |
|
The different
patterns of impairment from patient to patient suggest (but don't prove) that episodic and semantic memory are different
types of memory. |
|
0 |
Baddeley,
et.al.; Memory |
115 |
|
In brain
imaging studies of healthy participants
performing various memory tasks, the left prefrontal cortex was more active during episodic than semantic encoding. |
|
0 |
Baddeley,
et.al.; Memory |
115 |
|
The right
prefrontal cortex was more
active during episodic memory retrieval than during semantic memory retrieval. |
|
0 |
Baddeley,
et.al.; Memory |
116 |
|
Numerous simple questions about semantic memory can be answered very rapidly by most people in about one second. |
|
1 |
Baddeley,
et.al.; Memory |
116 |
|
Hierarchical Network Model |
|
0 |
Baddeley,
et.al.; Memory |
116 |
|
One hypothesis was that semantic
memory is organized into a series of hierarchical networks. |
|
0 |
Baddeley,
et.al.; Memory |
117 |
|
It is hypothesized that property
information is stored as high up in the hierarchy as possible to minimize the
amount of information that needs to be stored in semantic memory. |
|
1 |
Baddeley,
et.al.; Memory |
117 |
|
It is hypothesized that
organization within semantic memory is based on a principle of cognitive
economy. |
|
0 |
Baddeley,
et.al.; Memory |
117 |
|
We often use semantic
memory successfully by inferring the right answer. |
|
0 |
Baddeley,
et.al.; Memory |
117 |
|
Inferential process for semantic
memory. |
|
0 |
Baddeley,
et.al.; Memory |
118 |
|
Typicality gradient -- the
ordering of members of a category in terms of their typicality ratings. |
|
1 |
Baddeley,
et.al.; Memory |
119 |
|
Rather than belonging to rigidly
defined categories, it is much more realistic to assume that categories are
loosely determined. |
|
1 |
Baddeley,
et.al.; Memory |
119 |
|
Spreading Activation Model |
|
0 |
Baddeley,
et.al.; Memory |
119 |
|
According to spreading
activation theory, semantic
memory is organized on the basis of semantic relatedness or semantic distance. |
|
0 |
Baddeley,
et.al.; Memory |
120 |
|
According to spreading
activation theory,
whenever a person sees, hears,
or thinks about a concept, the appropriate node in the semantic memory is activated. |
|
1 |
Baddeley,
et.al.; Memory |
120 |
|
Spreading activation spreads most strongly to other concepts that are closely
related semantically, and more
weekly to those that are more distant semantically. |
|
0 |
Baddeley,
et.al.; Memory |
121 |
|
There is a facilitation (or semantic priming) effect for semantically related words. |
|
1 |
Baddeley,
et.al.; Memory |
121 |
|
The spreading
activation model
has
generally proved more
successful than the hierarchical network model. |
|
0 |
Baddeley,
et.al.; Memory |
121 |
|
The spreading
activation model
typically doesn't
make very precise
predictions. |
|
0 |
Baddeley,
et.al.; Memory |
121 |
|
Organization
of Semantic Memory in
the Brain |
|
0 |
Baddeley,
et.al.; Memory |
121 |
|
Behavioral experiments can tell
us much about the organization of semantic memory. |
|
0 |
Baddeley,
et.al.; Memory |
122 |
|
Much of the research related to semantic memory involves brain-damaged patients. |
|
1 |
Baddeley,
et.al.; Memory |
122 |
|
The pattern
of impairment shown by
brain-damaged patients can provide useful information about the way in which knowledge of concepts is organized
within the brain. |
|
0 |
Baddeley,
et.al.; Memory |
122 |
|
Many brain-damaged
patients have problems only with certain semantic categories. |
|
0 |
Baddeley,
et.al.; Memory |
122 |
|
The most
common pattern shown by patients with category-specific deficits is that their recognition
performance (identifying objects from pictures)
is worse on living than on nonliving things. |
|
0 |
Baddeley,
et.al.; Memory |
122 |
|
The general
pattern of greater
impairment for living than for nonliving things is much more common than the opposite pattern. |
|
0 |
Baddeley,
et.al.; Memory |
123 |
|
Nearly all
of the patients
having a selective impairment for knowledge of living
things had
damage to the anterior, medial,
and inferior parts of the temporal lobes. |
|
1 |
Baddeley,
et.al.; Memory |
123 |
|
Living things
are distinguished
from each other mainly on the basis of their visual or perceptual properties (i.e. what they look like). |
|
0 |
Baddeley,
et.al.; Memory |
123 |
|
Nonliving things are distinguished from each other mainly on the basis of their functional properties (i.e. what they are used for). |
|
0 |
Baddeley,
et.al.; Memory |
123 |
|
There are three
times as many visual units within the semantic system as there are functional units. |
|
0 |
Baddeley,
et.al.; Memory |
123 |
|
Brain areas farther
back in the brain in occipital,
posterior-temporal,
and posterior-parietal regions are
associated with processing of functional properties of objects. |
|
0 |
Baddeley,
et.al.; Memory |
123 |
|
According to sensory-functional
theory, information about objects in semantic memory is organized in
terms of the distinction between sensory or visual properties and functional ones rather than between living and non-living. |
|
0 |
Baddeley,
et.al.; Memory |
124 |
|
Processing of perceptual information from both living and nonliving concepts was associated with activation of the left posterior inferior
temporal lobe regions. |
|
1 |
Baddeley,
et.al.; Memory |
124 |
|
Processing of nonperceptual information (e.g. functional attributes) was associated with
activation of middle temporal lobe regions. |
|
0 |
Baddeley,
et.al.; Memory |
124 |
|
The areas of the brain that were activated was determined by
whether perceptual on
non-perceptual
information was being processed rather than whether the relevant object was living or nonliving. |
|
0 |
Baddeley,
et.al.; Memory |
125 |
|
The various
kinds of information
we have about an object
(e.g. what humans use it for, what it does, its visual properties, its taste) are distributed in different brain areas. |
|
1 |
Baddeley,
et.al.; Memory |
125 |
|
In ways that remain mysterious, we somehow manage to integrate all of these
kinds of information rapidly and automatically when we think about any given concept. |
|
0 |
Baddeley,
et.al.; Memory |
128 |
|
Schemas |
|
3 |
Baddeley,
et.al.; Memory |
128 |
|
A schema is a well integrated chunk of knowledge about the world,
events, people, or actions. |
|
0 |
Baddeley,
et.al.; Memory |
128 |
|
What we remember is influenced very much by the schematic
knowledge we already
possess. |
|
0 |
Baddeley,
et.al.; Memory |
128 |
|
The schemas stored in semantic memory include what are often referred to as scripts and frames. |
|
0 |
Baddeley,
et.al.; Memory |
128 |
|
Scripts
deal with knowledge about events and consequences of events. |
|
0 |
Baddeley,
et.al.; Memory |
128 |
|
Frames are knowledge structures referring to
some aspect of the world containing fixed structural information and slots for variable information. |
|
0 |
Baddeley,
et.al.; Memory |
128 |
|
Schemas
allow us to form expectations, e.g. in a restaurant, we expect to be
shown a table, to be given a menu by the waitor or waitress, to order food
and drink, etc. |
|
0 |
Baddeley,
et.al.; Memory |
129 |
|
We have an excellent
memory for unexpected events such as a waiter
spilling soup in a customer's
lap. |
|
1 |
Baddeley,
et.al.; Memory |
129 |
|
Schemas
play an important role
in reading and listening because they allow us to
fill in the gaps in
what we read or hear
and thereby enhance our understanding. |
|
0 |
Baddeley,
et.al.; Memory |
129 |
|
Schemas
provide the basis for
us to draw inferences as we read or listen. |
|
0 |
Baddeley,
et.al.; Memory |
132 |
|
Our memory
representations are often richer and more complex than is implied in schema theories. |
|
3 |
Baddeley,
et.al.; Memory |
132 |
|
Disorders
of Concept and Schema-based Memory |
|
0 |
Baddeley,
et.al.; Memory |
132 |
|
Semantic dementia involves severe problems in accessing the meaning of words and objects, but leaves a good
executive functioning
in the early stages
of deterioration. |
|
0 |
Baddeley,
et.al.; Memory |
133 |
|
Scripts
typically have a goal
directed quality, and it is generally assumed
that executive functioning within the prefrontal cortex is very useful
in constructing and implementing goals. |
|
1 |
Baddeley,
et.al.; Memory |
133 |
|
Some patients with damage to the prefrontal cortex seem to have particular problems with scripts. |
|
0 |
Baddeley,
et.al.; Memory |
133 |
|
Although some research has
suggested that prefrontal patients had as much stored information about actions as normal healthy controls,
prefrontal patients make many mistakes in ordering actions within a script and then deciding
which actions are most important to the achievement of any given event. |
|
0 |
Baddeley,
et.al.; Memory |
133 |
|
Some prefrontal patients have had particular
problems with script-based knowledge requiring assembling
the actions within a script in the optimal sequence. |
|
0 |
Baddeley,
et.al.; Memory |
133 |
|
Patients with semantic dementia and healthy controls both detected as many sequencing errors as semantic ones. |
|
0 |
Baddeley,
et.al.; Memory |
133 |
|
Temporo-frontal patients with attention deficits and poor executive functioning failed to detect many sequencing errors as contrasted
with semantic ones. |
|
0 |
Baddeley,
et.al.; Memory |
134 |
|
There is an important distinction between semantic memory and episodic memory. |
|
1 |
Baddeley,
et.al.; Memory |
134 |
|
The extent of anterograde and retrograde amnesia for episodic and semantic memories often differ considerably, suggesting that the two types of memory are distinctly different. |
|
0 |
Baddeley,
et.al.; Memory |
134 |
|
Brain imaging
indicates that somewhat different brain areas are activated during learning, depending on whether the task involves episodic or semantic memory, and the same is true during
retrieval. |
|
0 |
Baddeley,
et.al.; Memory |
134 |
|
According to the hierarchical network model, semantic memory
is organized into numerous hierarchical networks. |
|
0 |
Baddeley,
et.al.; Memory |
134 |
|
According to the spreading activation model, activation of a given concept causes activation to spread most strongly to other concepts that are closely related semantically. |
|
0 |
Baddeley,
et.al.; Memory |
134 |
|
The spreading
activation model
explains the typicality effect and the effects of semantic
priming. |
|
0 |
Baddeley,
et.al.; Memory |
134 |
|
Attempts have been made to
understand the organization
of semantic memory by
studying brain-damaged patients with category-specific deficits. |
|
0 |
Baddeley,
et.al.; Memory |
134 |
|
Brain-damaged patients with category specific deficits often have much greater problems in identifying living as contrasted with nonliving things, but many exhibit more complex problems |
|
0 |
Baddeley,
et.al.; Memory |
134 |
|
According to sensory-functional
theory, visual properties of objects are stored in different regions of the brain from their functional properties. |
|
0 |
Baddeley,
et.al.; Memory |
134 |
|
The assumption that visual properties are especially important with living things and functional properties with nonliving things explains many research
findings. |
|
0 |
Baddeley,
et.al.; Memory |
134 |
|
An expanded
theory has yielded a more complex multiple property approach in
which sensory and functional properties was subdivided to produce several additional properties. |
|
0 |
Baddeley,
et.al.; Memory |
134 |
|
The multiple
property approach provides a more adequate account of the
findings from brain-damaged patients than does sensory-functional
theory. |
|
0 |
Baddeley,
et.al.; Memory |
134 |
|
Schematic knowledge is useful because it allow us to
form appropriate expectations and to draw inferences to fill in the gaps in the information presented to us. |
|
0 |
Baddeley,
et.al.; Memory |
134 |
|
Schematic knowledge causes distortions in memory when what we read or hear is inconsistent with that knowledge. |
|
0 |
Baddeley,
et.al.; Memory |
137 |
|
Autobiographical Memory |
|
3 |
Baddeley,
et.al.; Memory |
138 |
|
Autobiographical memories can play an important role in creating and maintaining our self representation. |
|
1 |
Baddeley,
et.al.; Memory |
138 |
|
Elderly patients with memory
problems are encouraged to build up a set of reminders of their earlier life based on photographs and personal memories -- items that bring back memories of their younger days. |
|
0 |
Baddeley,
et.al.; Memory |
138 |
|
In depression, patients find it difficult to recollect positive life experiences when depressed, whereas negative
recollections are more
readily available, a retrieval
effect known as mood-congruent memory. |
|
0 |
Baddeley,
et.al.; Memory |
142 |
|
People tend to recall few autobiographical memories from
the first five years
of life, an effect termed infantile amnesia. |
|
4 |
Baddeley,
et.al.; Memory |
142 |
|
A number of interpretations of infantile amnesia had been
proposed, including the late development of the hippocampus, and the undeveloped nature during infancy
of a coherent self, something that is gradually built up on the basis of memories and experiences. |
|
0 |
Baddeley,
et.al.; Memory |
144 |
|
A Theory of Autobiographical
Memory |
|
2 |
Baddeley,
et.al.; Memory |
144 |
|
One researcher defines autobiographical memory as a
system that retains knowledge concerning the experienced self, the "me." |
|
0 |
Baddeley,
et.al.; Memory |
144 |
|
Autobiographical memory is always addressed by the content of the memory. |
|
0 |
Baddeley,
et.al.; Memory |
144 |
|
Recollective experiences occur when our autobiographical knowledge, our personal semantic memory, retains access to associated episodic memories. |
|
0 |
Baddeley,
et.al.; Memory |
144 |
|
Recollective experiences are transitory and are constructed dynamically on the basis of the autobiographical
knowledge base. |
|
0 |
Baddeley,
et.al.; Memory |
145 |
|
The autobiographical
knowledge base
ranges from very broad-brush
representations of
lifetime periods to sensory-perceptual
episodes,
which are rapidly lost. |
|
1 |
Baddeley,
et.al.; Memory |
145 |
|
The whole system of consciousness depends on the interaction between the autobiographical knowledge base
and the working self. |
|
0 |
Baddeley,
et.al.; Memory |
145 |
|
Working self
is a concept to account for the way in which autobiographical
knowledge is accumulated and used. |
|
0 |
Baddeley,
et.al.; Memory |
145 |
|
The working
self is assumed to play a similar role in autobiographical memory
to
that played by working memory in cognition more generally. |
|
0 |
Baddeley,
et.al.; Memory |
145 |
|
Working self
comprises a complex set
of active goals and self images. |
|
0 |
Baddeley,
et.al.; Memory |
146 |
|
The autobiographical knowledge base has a broadly hierarchical structure, with an overall life story being linked to a number of broad themes. |
|
1 |
Baddeley,
et.al.; Memory |
146 |
|
Autonoetic consciousness is the capacity to reflect on our thoughts. |
|
0 |
Baddeley,
et.al.; Memory |
146 |
|
Accessing
detailed knowledge of autonoetic consciousness tends to be relatively slow, typically taking several seconds, whereas access to semantic memory is often performed almost immediately. |
|
0 |
Baddeley,
et.al.; Memory |
146 |
|
Patients with
frontal lobe damage can have difficulty both in accessing autobiographical memories
and also, once accessed,
in evaluating them,
or perhaps more precisely in failure to evaluate. |
|
0 |
Baddeley,
et.al.; Memory |
146 |
|
Autonoetic consciousness -- a term proposed for self
awareness, allowing the rememberer to reflect on the contents of episodic memory. |
|
0 |
Baddeley,
et.al.; Memory |
147 |
|
Flashbulb Memories |
|
1 |
Baddeley,
et.al.; Memory |
147 |
|
Flashbulb
memory --
the detailed
and apparently highly accurate memory of a dramatic experience. |
|
0 |
Baddeley,
et.al.; Memory |
147 |
|
People do report very vivid recollections of the point
at which they remember hearing about major
disasters, e.g. death of Martin Luther King, the
Challenger space disaster, the World Trade Center attack. |
|
0 |
Baddeley,
et.al.; Memory |
148 |
|
Social and Emotional Factors in
Memory |
|
1 |
Baddeley,
et.al.; Memory |
148 |
|
We tend to reconstruct our memories rather than simply calling them up. |
|
0 |
Baddeley,
et.al.; Memory |
148 |
|
Memory in general, and autobiographical memory in
particular, is likely to be influenced by our hopes and needs. |
|
0 |
Baddeley,
et.al.; Memory |
148 |
|
A tendency to place ourselves center-stage probably plays a part
in our memories,
perhaps because it helps us maintain our self-esteem. |
|
0 |
Baddeley,
et.al.; Memory |
148 |
|
We readily
accept praise but tend to be skeptical
of criticism. |
|
0 |
Baddeley,
et.al.; Memory |
148 |
|
We are inclined to take credit for success when it occurs but deny
responsibility for failure. |
|
0 |
Baddeley,
et.al.; Memory |
149 |
|
We are rather good at selectively forgetting failure and remembering success and praise. |
|
1 |
Baddeley,
et.al.; Memory |
150 |
|
Recovered Memories |
|
1 |
Baddeley,
et.al.; Memory |
150 |
|
A number of therapists assert
that abuse as a child can
lead to a range of subsequent adult psychological and emotional problems that result directly from repression of memory of the abuse. |
|
0 |
Baddeley,
et.al.; Memory |
151 |
|
False memory syndrome |
|
1 |
Baddeley,
et.al.; Memory |
151 |
|
Posttraumatic Stress Disorder (PTSD) |
|
0 |
Baddeley,
et.al.; Memory |
151 |
|
PTSD can follow from situations
of extreme stress such as rape, near drowning, or a horrific traffic
accident. |
|
0 |
Baddeley,
et.al.; Memory |
151 |
|
PTSD often involves
"flashbacks," extremely vivid memories of the scene of the initial
terror. |
|
0 |
Baddeley,
et.al.; Memory |
151 |
|
PTSD might be accompanied by
nightmares and a more general state of anxiety. |
|
0 |
Baddeley,
et.al.; Memory |
152 |
|
Do flashbacks represent a
different kind of memory? A distinction has been suggested between verbally
accessible memory, which links with the normal memory system, and
situationally accessible memory, which is highly detailed when it occurs in
the flashback but cannot be called to mind intentionally. |
|
1 |
Baddeley,
et.al.; Memory |
152 |
|
The precise mechanism underlying
memory disturbance and PTSD remains uncertain. |
|
0 |
Baddeley,
et.al.; Memory |
152 |
|
Incidental stimuli or thoughts
can act as a conditional stimulus that can trigger off the emotional
response, bringing back the associated memory. |
|
0 |
Baddeley,
et.al.; Memory |
152 |
|
Given an equivalent level of
stress, not everyone develops PTSD, and those who do sometimes recover
spontaneously. |
|
0 |
Baddeley,
et.al.; Memory |
152 |
|
The response of the autonomic
nervous system (ANS) to stress may influence PTSD. |
|
0 |
Baddeley,
et.al.; Memory |
152 |
|
In a threatening situation, the
amygdala this signals the ANS to release adrenaline and cortisol, stress
hormones that alert the organism for flight or fight. |
|
0 |
Baddeley,
et.al.; Memory |
152 |
|
When the danger passes, the
brain normally signals the adrenal glands to stop producing stress hormones,
gradually drained the body back to normal. |
|
0 |
Baddeley,
et.al.; Memory |
152 |
|
In PTSD patients, the corrective
process is reduced, leading to a more prolonged period of stress. |
|
0 |
Baddeley,
et.al.; Memory |
153 |
|
Involuntary memories |
|
1 |
Baddeley,
et.al.; Memory |
153 |
|
Through flashbacks that occur in
PTSD represents a different kind of memory? The flashback memory differs
greatly from the reconstructive view of memory that is associated with normal
remembering. |
|
0 |
Baddeley,
et.al.; Memory |
153 |
|
Reappearance hypothesis -- under
certain circumstances, such as flashbulb memory and PTSD, memories can be
created that later reappeared in exactly the same form. |
|
0 |
Baddeley,
et.al.; Memory |
155 |
|
Researchers have concluded that
flashbacks that are observed and PTSD do not comprise a special type of
memory but have the same characteristics as recurrent memories in the normal
course of life, and that both reflect the same basic principles as are found
across all types of autobiographical memory. |
|
2 |
Baddeley,
et.al.; Memory |
155 |
|
Psychogenic Amnesia |
|
0 |
Baddeley,
et.al.; Memory |
156 |
|
Amnesia is
most common in association with extreme emotion. |
|
1 |
Baddeley,
et.al.; Memory |
156 |
|
Amnesia is not accepted as a mitigating factor in UK law, or in
many other countries. |
|
0 |
Baddeley,
et.al.; Memory |
156 |
|
Multiple Person Disorder |
|
0 |
Baddeley,
et.al.; Memory |
156 |
|
The idea that one person could contain two or
more very different personalities was popularized by Robert Louis
Stevenson's book Dr. Jekyll and Mr.
Hyde. |
|
0 |
Baddeley,
et.al.; Memory |
157 |
|
Organically Based Deficits in
Autobiographical Memory |
|
1 |
Baddeley,
et.al.; Memory |
157 |
|
Organically based amnesia differs from psychogenic amnesia in that a sense
of personal identity
is rarely lost, whereas problems in orientation in time and place
are very common. |
|
0 |
Baddeley,
et.al.; Memory |
158 |
|
Autobiographical Memory and the Brain |
|
1 |
Baddeley,
et.al.; Memory |
158 |
|
Confabulation |
|
0 |
Baddeley,
et.al.; Memory |
158 |
|
Confabulation
occurs when the autobiographical information is false but not intentionally misleading. |
|
0 |
Baddeley,
et.al.; Memory |
159 |
|
Delusions |
|
1 |
Baddeley,
et.al.; Memory |
159 |
|
Delusions
are patently false
beliefs about the patient and the world. |
|
0 |
Baddeley,
et.al.; Memory |
159 |
|
Delusions
can be highly elaborated and very persistent. |
|
0 |
Baddeley,
et.al.; Memory |
159 |
|
Delusions
differ from confabulation, which tends to be temporary in nature and often lacks
coherence. |
|
0 |
Baddeley,
et.al.; Memory |
159 |
|
Whereas confabulations tend to be associated with frontal
lobe damage,
delusions tend
to occur more frequently in schizophrenia. |
|
0 |
Baddeley,
et.al.; Memory |
159 |
|
Delusions
can appear to be fantastic in nature. |
|
0 |
Baddeley,
et.al.; Memory |
159 |
|
Auditory hallucinations often occur in patients with schizophrenia. |
|
0 |
Baddeley,
et.al.; Memory |
159 |
|
Delusions
can be highly elaborated, involving beings from other planets, and are often paranoid in nature, with patients believing their mind is being controlled from
outside, by the government or foreign powers. |
|
0 |
Baddeley,
et.al.; Memory |
159 |
|
Delusions
can include belief
that the patient is a
reincarnation of Jesus Christ. |
|
0 |
Baddeley,
et.al.; Memory |
159 |
|
Anatomical Basis of Autobiographical Memory |
|
0 |
Baddeley,
et.al.; Memory |
159 |
|
Researchers have found that the early stages of autobiographical memory involve
the left prefrontal cortex, presumably
reflecting the executive processes involved in evoking the memory, followed by activation that spread back to the occipital and temporal lobes, consistent with an important role for visual imagery. |
|
0 |
Baddeley,
et.al.; Memory |
159 |
|
Research supports a distinction between episodic and semantic aspects of autobiographical memory. |
|
0 |
Baddeley,
et.al.; Memory |
163 |
|
Retrieval |
|
4 |
Baddeley,
et.al.; Memory |
163 |
|
"On the Tip of the
Tongue" |
|
0 |
Baddeley,
et.al.; Memory |
165 |
|
Retrieval Process |
|
2 |
Baddeley,
et.al.; Memory |
165 |
|
During
retrieval, we usually seek a particular memory -- a particular
fact, idea, or experience, often called the target
memory or the target
trace. |
|
0 |
Baddeley,
et.al.; Memory |
165 |
|
The snippets
of information that allow you to access a memory are known as retrieval cues, or simply cues. |
|
0 |
Baddeley,
et.al.; Memory |
165 |
|
Traces of memory are believed to be linked up to one another by connections that are usually called associations or links. |
|
0 |
Baddeley,
et.al.; Memory |
165 |
|
Associations
are synaptic efficacy linkages between traces that vary in strength. |
|
0 |
Baddeley,
et.al.; Memory |
165 |
|
Retrieval
is a progression from
one or more cues to a target memory, via associative connections. |
|
0 |
Baddeley,
et.al.; Memory |
165 |
|
Many things can serve as cues; the smell of peas might remind you of last night; or the song on the radio might be the same one you played while dining on peas. |
|
0 |
Baddeley,
et.al.; Memory |
165 |
|
Any aspect
of the content of the
memory can serve as a reminder that could access the experience, a property known
as content addressable memory. |
|
0 |
Baddeley,
et.al.; Memory |
165 |
|
The neural
network is essentially a mental "search engine,"
but we can search
with just about any type of information. |
|
0 |
Baddeley,
et.al.; Memory |
166 |
|
Each memory has
an internal state of
its own, reflecting how "excited" or "active" it is, a
state referred to as the memory's activation level. |
|
1 |
Baddeley,
et.al.; Memory |
166 |
|
A memory
trace's activation level increases when something
related to it is perceived in the world. |
|
0 |
Baddeley,
et.al.; Memory |
166 |
|
A memory
trace's activation persists for some time, even
after attention has been removed. |
|
0 |
Baddeley,
et.al.; Memory |
166 |
|
Memories automatically spread activation to other memories to
which they are associated. |
|
0 |
Baddeley,
et.al.; Memory |
166 |
|
Spreading activation is like "energy" flowing through connections linking traces. |
|
0 |
Baddeley,
et.al.; Memory |
166 |
|
The amount of activation spread
from the cue to an associate is larger the stronger the association, and activation is spread in parallel to all associates. |
|
0 |
Baddeley,
et.al.; Memory |
166 |
|
If the target accumulates enough activation from the cue, it will be retrieved, even though other associates might be
activated as well. |
|
0 |
Baddeley,
et.al.; Memory |
166 |
|
The idea that traces have activation that spreads is central to many theories of memory, and provides a useful way of thinking
about how to cues access memories. |
|
0 |
Baddeley,
et.al.; Memory |
166 |
|
Retrieval
is a progression from
one or more cues to the target memory, via associative connections linking them together, through a process
of spreading activation. |
|
0 |
Baddeley,
et.al.; Memory |
166 |
|
Retrieval
is less effective if cues are present, but not attended, or not attended enough. |
|
0 |
Baddeley,
et.al.; Memory |
166 |
|
Many theories assume that the activation given to a concept increases with attention. |
|
0 |
Baddeley,
et.al.; Memory |
166 |
|
If people are given a secondary task to perform during retrieval, they are distracted, and the retrieval usually grows worse, especially if the
secondary task requires them to pay attention to related materials. |
|
0 |
Baddeley,
et.al.; Memory |
169 |
|
Encoding specificity principle. |
|
3 |
Baddeley,
et.al.; Memory |
169 |
|
For a cue to be useful, it needs to be present
at encoding,
and encoded with
the desired trace. |
|
0 |
Baddeley,
et.al.; Memory |
169 |
|
Cues that are specifically
encoded with a target are more powerful even if they might seem to be less
good than other cues that have a pre-existing relationship with the target. |
|
0 |
Baddeley,
et.al.; Memory |
169 |
|
We remember what we experience, and we access memory by using a fragment of that experience as a key to the whole. |
|
0 |
Baddeley,
et.al.; Memory |
169 |
|
Associations vary in strength, and it is the strength that determines the rate at which activation spreads between a cue and a target. |
|
0 |
Baddeley,
et.al.; Memory |
169 |
|
If the association between a cue and the target is poor, retrieval
failure might occur. |
|
0 |
Baddeley,
et.al.; Memory |
170 |
|
Retrieval
success depends on how associated the cues are to the target, which depends on
the time and attention we spent encoding the association. |
|
1 |
Baddeley,
et.al.; Memory |
170 |
|
Having two
cues is often far
more beneficial than you would expect by simply combining the probability of retrieving the target from each cue separately. |
|
0 |
Baddeley,
et.al.; Memory |
170 |
|
It is useful to encode information
elaboratively. |
|
0 |
Baddeley,
et.al.; Memory |
170 |
|
Elaboration associates the material to many cues that might be used for later retrieval. |
|
0 |
Baddeley,
et.al.; Memory |
176 |
|
Incidental
Context in Episodic
Memory Retrieval |
|
6 |
Baddeley,
et.al.; Memory |
176 |
|
Context
dependent memory -- memory benefits when the
spatio-temporal, mood, physiological, or cognitive context at retrieval matches
that at encoding. |
|
0 |
Baddeley,
et.al.; Memory |
176 |
|
Several types of context dependent memory exists,
including environmental, mood, and state-dependent memory. |
|
0 |
Baddeley,
et.al.; Memory |
176 |
|
Environmental Context Dependent Memory |
|
0 |
Baddeley,
et.al.; Memory |
177 |
|
State
Dependent Memory |
|
1 |
Baddeley,
et.al.; Memory |
178 |
|
Aspects of our physiological state are encoded incidentally as part of
the episode experience, and re-creation of that state at retrieval helps memory. |
|
1 |
Baddeley,
et.al.; Memory |
178 |
|
Mood-Congruent and Mood-Dependent Memory |
|
0 |
Baddeley,
et.al.; Memory |
178 |
|
Mood
congruent memory
-- negative mood makes negative memories more readily available than positive, and vice versa. |
|
0 |
Baddeley,
et.al.; Memory |
179 |
|
Cognitive Context-Dependent
Memory |
|
1 |
Baddeley,
et.al.; Memory |
179 |
|
Mood
dependent memory -- a
form of context dependent effect whereby what is learned in a given mood, whether positive,
negative, or neutral, is best recalled in that mood. |
|
0 |
Baddeley,
et.al.; Memory |
180 |
|
Reconstructive Memory |
|
1 |
Baddeley,
et.al.; Memory |
180 |
|
The term reconstructive memory
refers to the active and inferential aspect of retrieval. |
|
0 |
Baddeley,
et.al.; Memory |
180 |
|
There certainly exists an
automatic retrieval process whereby information "pops up" for no
obvious reason. |
|
0 |
Baddeley,
et.al.; Memory |
181 |
|
Reconstructive processes often
lead to errors in recollection. |
|
1 |
Baddeley,
et.al.; Memory |
181 |
|
When veridical recall is
essential (e.g. eyewitness memory), reconstructive errors can have grave
consequences. |
|
0 |
Baddeley,
et.al.; Memory |
181 |
|
Recognition Memory |
|
0 |
Baddeley,
et.al.; Memory |
182 |
|
Recognition
memory -- a person's ability to correctly decide
whether they have been encounted a stimulus
previously in a particular
context. |
|
1 |
Baddeley,
et.al.; Memory |
182 |
|
Frequently our intention is not
to generate a memory, but to make a decision about whether we have previously
encountered a particular stimulus pattern. |
|
0 |
Baddeley,
et.al.; Memory |
182 |
|
Unlike recall, recognition presents the intact stimulus, and hence requires
a judgment:
did you see
this stimulus in a certain
context? |
|
0 |
Baddeley,
et.al.; Memory |
182 |
|
Detractors,
lures, or foils, are akin to other members of the
lineup who the police think are innocent. |
|
0 |
Baddeley,
et.al.; Memory |
182 |
|
We need to consider people's tendencies for guessing when making a recognition judgment. |
|
0 |
Baddeley,
et.al.; Memory |
183 |
|
Signal
detection theory as a
model of a recognition memory |
|
1 |
Baddeley,
et.al.; Memory |
183 |
|
Signal
detection theory
provides a useful way of thinking about recognition that comes with tools necessary to distinguish true memory and guessing. |
|
0 |
Baddeley,
et.al.; Memory |
183 |
|
Signal
detection theory proposes
that memory traces
have strength values
that reflect their activation in memory, which dictates how
familiar they seem. |
|
0 |
Baddeley,
et.al.; Memory |
183 |
|
Memory
traces are thought to vary
in their familiarity, depending on how
much attention the item received at encoding or how many times it was repeated. |
|
0 |
Baddeley,
et.al.; Memory |
186 |
|
Familiarity-based
recognition -- a fast,
automatic recognition process based on the
perception of a memory's strength. |
|
3 |
Baddeley,
et.al.; Memory |
186 |
|
The familiarity process is
characterized as fast and automatic, yielding as output a perception of the
memory's strength, without the recall of particulars. |
|
0 |
Baddeley,
et.al.; Memory |
186 |
|
Recollection -- the slower, more
attention-demanding component of recognition memory. |
|
0 |
Baddeley,
et.al.; Memory |
186 |
|
The recollection
process is slow and more attention demanding, much more like the recall process of generating information about the context of experiencing the stimulus. |
|
0 |
Baddeley,
et.al.; Memory |
187 |
|
Recollection is a controlled, attention-demanding process. |
|
1 |
Baddeley,
et.al.; Memory |
187 |
|
Groups who have diminished attention, such as older adults and patients with damage to the prefrontal cortex, often show deficits
in recollection, but an intact
sense of familiarity for recently
seen stimuli. |
|
0 |
Baddeley,
et.al.; Memory |
187 |
|
Information about how familiar a stimulus seems is retrieved much more quickly than information necessary for recollection, consistent with the
view that familiarity judgments reflect an automatic process. |
|
0 |
Baddeley,
et.al.; Memory |
191 |
|
Incidental Forgetting |
|
4 |
Baddeley,
et.al.; Memory |
196 |
|
Factors that Discourage
Forgetting |
|
5 |
Baddeley,
et.al.; Memory |
198 |
|
Factors that Encourage
Incidental Forgetting |
|
2 |
Baddeley,
et.al.; Memory |
198 |
|
Passage of time as a cause for
getting |
|
0 |
Baddeley,
et.al.; Memory |
201 |
|
Interference phenomena |
|
3 |
Baddeley,
et.al.; Memory |
202 |
|
Retroactive interference |
|
1 |
Baddeley,
et.al.; Memory |
204 |
|
Proactive interference |
|
2 |
Baddeley,
et.al.; Memory |
206 |
|
Retrieval-induced Forgetting |
|
2 |
Baddeley,
et.al.; Memory |
209 |
|
Interference Mechanisms |
|
3 |
Baddeley,
et.al.; Memory |
209 |
|
Associative blocking |
|
0 |
Baddeley,
et.al.; Memory |
210 |
|
Associative unlearning |
|
1 |
Baddeley,
et.al.; Memory |
211 |
|
Inhibition as a cause of
forgetting |
|
1 |
Baddeley,
et.al.; Memory |
217 |
|
Motivated Forgetting |
|
6 |
Baddeley,
et.al.; Memory |
218 |
|
Life is Good, Or Memory Makes it
So |
|
1 |
Baddeley,
et.al.; Memory |
219 |
|
Terminology in research on
Motivated Forgetting |
|
1 |
Baddeley,
et.al.; Memory |
229 |
|
Extreme Emotional Distress |
|
10 |
Baddeley,
et.al.; Memory |
231 |
|
Factors that Predict Memory
Recovery |
|
2 |
Baddeley,
et.al.; Memory |
231 |
|
Passage of Time |
|
0 |
Baddeley,
et.al.; Memory |
233 |
|
Repeated retrieval attempts |
|
2 |
Baddeley,
et.al.; Memory |
235 |
|
Cue reinstatement |
|
2 |
Baddeley,
et.al.; Memory |
237 |
|
Recovered Memories of Trauma --
Instances of Motivated Forgetting? |
|
2 |
Baddeley,
et.al.; Memory |
245 |
|
Amnesia |
|
8 |
Baddeley,
et.al.; Memory |
248 |
|
Anteriorgrade Amnesia |
|
3 |
Baddeley,
et.al.; Memory |
250 |
|
Theories of Amnesia |
|
2 |
Baddeley,
et.al.; Memory |
255 |
|
Retrograde Amnesia |
|
5 |
Baddeley,
et.al.; Memory |
259 |
|
Traumatic Brain Injury |
|
4 |
Baddeley,
et.al.; Memory |
267 |
|
Memory in Childhood |
|
8 |
Baddeley,
et.al.; Memory |
267 |
|
Most people remember
very little (if anything) about what occurred before the age of two or
three. |
|
0 |
Baddeley,
et.al.; Memory |
267 |
|
Research studies of autobiographical memory suggest a dearth of memories before the age of about 5 years. |
|
0 |
Baddeley,
et.al.; Memory |
268 |
|
Memory in Infants |
|
1 |
Baddeley,
et.al.; Memory |
272 |
|
Cognitive Neuroscience |
|
4 |
Baddeley,
et.al.; Memory |
272 |
|
For implicit memory, there is
reasonably good agreement that parts of the striatum, the cerebellum, and the brain stem are all involved in implicit learning and memory. |
|
0 |
Baddeley,
et.al.; Memory |
272 |
|
The implicit memory structures mature very early in life. |
|
0 |
Baddeley,
et.al.; Memory |
272 |
|
There is evidence of implicit memory shortly after
birth. |
|
0 |
Baddeley,
et.al.; Memory |
272 |
|
Declarative
memory depends heavily on structures in the medial temporal lobe, including
the hippocampus and parahippocampal cortex. |
|
0 |
Baddeley,
et.al.; Memory |
272 |
|
Much of the declarative
memory brain system
is formed before
birth.
However, the dentate gyrus within the hippocampus formation has only about 70% of the adult number of cells at
birth. |
|
0 |
Baddeley,
et.al.; Memory |
273 |
|
The dentate
gyrus continues to develop until about the end of the first year of life, and other
parts of the hippocampal
formation might not be fully
developed until the child is between 2 and 8 years of age. |
|
1 |
Baddeley,
et.al.; Memory |
273 |
|
The late-developing
parts of the hippocampal
formation could help to explain why declarative memory continues to develop over the early years of life. |
|
0 |
Baddeley,
et.al.; Memory |
273 |
|
Brain areas other than the hippocampus are
also involved in declarative
memory, e.g. the
prefrontal cortex, which is known to be involved
in memories after a delay. |
|
0 |
Baddeley,
et.al.; Memory |
273 |
|
The density
as synapses in the prefrontal cortex increases substantially at about 8 months of age, and continues
to increase until the infant is 15-24 months of age. |
|
0 |
Baddeley,
et.al.; Memory |
273 |
|
There is rapid
myelination of axons within the central nervous system during the first year of life. |
|
0 |
Baddeley,
et.al.; Memory |
273 |
|
Myelination is important because it allows infants to process
stimuli more rapidly
and efficiently. |
|
0 |
Baddeley,
et.al.; Memory |
273 |
|
Developmental Changes in Memory
during Childhood |
|
0 |
Baddeley,
et.al.; Memory |
273 |
|
Young children show considerable
advances in declarative memory
over the first 2 or 3 years of life. |
|
0 |
Baddeley,
et.al.; Memory |
273 |
|
There is overwhelming evidence
that the development of declarative
memory continues for many years after
infancy, at least until adolescence. |
|
0 |
Baddeley,
et.al.; Memory |
273 |
|
Development of Declarative
Memory |
|
0 |
Baddeley,
et.al.; Memory |
274 |
|
Metamemory -- knowledge about
one's own memory and an ability to regulate its functioning. |
|
1 |
Baddeley,
et.al.; Memory |
277 |
|
The main component of the
working memory system all increase in capacity during childhood. |
|
3 |
Baddeley,
et.al.; Memory |
277 |
|
Verbatim and Gist Memory |
|
0 |
Baddeley,
et.al.; Memory |
279 |
|
Declarative vs. Implicit Memory |
|
2 |
Baddeley,
et.al.; Memory |
279 |
|
Declarative
memory becomes markedly
better over the years, but there are generally very small effects of age on implicit memory. |
|
0 |
Baddeley,
et.al.; Memory |
280 |
|
Implicit
memory involves more
basic processes than declarative
memory, and so is less affected by children's
developing cognitive skills and abilities. |
|
1 |
Baddeley,
et.al.; Memory |
280 |
|
Autobiographical Memory and
Infantile Amnesia |
|
0 |
Baddeley,
et.al.; Memory |
283 |
|
Infantile Amnesia |
|
3 |
Baddeley,
et.al.; Memory |
283 |
|
Cognitive Self |
|
0 |
Baddeley,
et.al.; Memory |
284 |
|
The development of the cognitive self late in the second year of life provides a new framework around which memories can be
organized. |
|
1 |
Baddeley,
et.al.; Memory |
284 |
|
With the development of the cognitive self, we witness the emergence of autobiographical memory and the end
of infantile amnesia. |
|
0 |
Baddeley,
et.al.; Memory |
284 |
|
The
cognitive self appears shortly
before the onset of autobiographical
memory, around or shortly after children's second birthdays. |
|
0 |
Baddeley,
et.al.; Memory |
284 |
|
Autobiographical
memories are most likely
to be remembered for very long periods of time if they
are rehearsed frequently, and young children simply don't engage in much rehearsal of
remembered information. |
|
0 |
Baddeley,
et.al.; Memory |
284 |
|
Social Cultural Theory |
|
0 |
Baddeley,
et.al.; Memory |
284 |
|
Language is
important in part
because we use language to communicate our memories. |
|
0 |
Baddeley,
et.al.; Memory |
285 |
|
Children as Witnesses |
|
1 |
Baddeley,
et.al.; Memory |
286 |
|
How accurately do children
recall events? |
|
1 |
Baddeley,
et.al.; Memory |
293 |
|
Memory and Aging |
|
7 |
Baddeley,
et.al.; Memory |
296 |
|
Working Memory and Aging |
|
3 |
Baddeley,
et.al.; Memory |
296 |
|
Short-term memory |
|
0 |
Baddeley,
et.al.; Memory |
298 |
|
Aging and Long-Term Memory |
|
2 |
Baddeley,
et.al.; Memory |
298 |
|
Episodic Memory |
|
0 |
Baddeley,
et.al.; Memory |
300 |
|
Remembering and Knowing |
|
2 |
Baddeley,
et.al.; Memory |
301 |
|
Prospective memory |
|
1 |
Baddeley,
et.al.; Memory |
302 |
|
Semantic memory |
|
1 |
Baddeley,
et.al.; Memory |
303 |
|
Implicit learning and memory |
|
1 |
Baddeley,
et.al.; Memory |
304 |
|
Use It or Lose It? |
|
1 |
Baddeley,
et.al.; Memory |
305 |
|
Theories of Aging |
|
1 |
Baddeley,
et.al.; Memory |
307 |
|
The Aging Brain |
|
2 |
Baddeley,
et.al.; Memory |
309 |
|
Alzheimer's Disease |
|
2 |
Baddeley,
et.al.; Memory |
311 |
|
Episodic memory |
|
2 |
Baddeley,
et.al.; Memory |
311 |
|
Forgetting |
|
0 |
Baddeley,
et.al.; Memory |
312 |
|
Implicit Memory |
|
1 |
Baddeley,
et.al.; Memory |
312 |
|
Working Memory in Alzheimer's
Disease |
|
0 |
Baddeley,
et.al.; Memory |
317 |
|
Eyewitness Testimony |
|
5 |
Baddeley,
et.al.; Memory |
318 |
|
Major factors influencing
Eyewitness Accuracy |
|
1 |
Baddeley,
et.al.; Memory |
320 |
|
Remembering what you expected to
see |
|
2 |
Baddeley,
et.al.; Memory |
321 |
|
Leading questions |
|
1 |
Baddeley,
et.al.; Memory |
324 |
|
Individual differences |
|
3 |
Baddeley,
et.al.; Memory |
325 |
|
Eyewitness confidence |
|
1 |
Baddeley,
et.al.; Memory |
326 |
|
Influence of anxiety and
violence |
|
1 |
Baddeley,
et.al.; Memory |
328 |
|
Remembering Faces |
|
2 |
Baddeley,
et.al.; Memory |
329 |
|
How well do we remember faces? |
|
1 |
Baddeley,
et.al.; Memory |
330 |
|
Holistic processing |
|
1 |
Baddeley,
et.al.; Memory |
332 |
|
Unconscious transference |
|
2 |
Baddeley,
et.al.; Memory |
332 |
|
Verbal overshadowing |
|
0 |
Baddeley,
et.al.; Memory |
333 |
|
Cross-race effect |
|
1 |
Baddeley,
et.al.; Memory |
334 |
|
Police Procedures with
Eyewitnesses |
|
1 |
Baddeley,
et.al.; Memory |
334 |
|
Lineups |
|
0 |
Baddeley,
et.al.; Memory |
334 |
|
Interviewing witnesses |
|
0 |
Baddeley,
et.al.; Memory |
343 |
|
Prospective Memory |
|
9 |
Baddeley,
et.al.; Memory |
357 |
|
Improving Your Memory |
|
14 |
Baddeley,
et.al.; Memory |
357 |
|
Techniques to Improve Memory |
|
0 |
Baddeley,
et.al.; Memory |
358 |
|
Mnemonic aids |
|
1 |
Baddeley,
et.al.; Memory |
360 |
|
Memory experts |
|
2 |
Baddeley,
et.al.; Memory |
361 |
|
Natural vs. Strategists |
|
1 |
Baddeley,
et.al.; Memory |
363 |
|
Mnemonic techniques |
|
2 |
Baddeley,
et.al.; Memory |
363 |
|
Visual Imagery Mnemonics |
|
0 |
Baddeley,
et.al.; Memory |
368 |
|
Why do mnemonic techniques work? |
|
5 |
Baddeley,
et.al.; Memory |
374 |
|
Learning vocabulary |
|
6 |
Baddeley,
et.al.; Memory |
376 |
|
Learning verbatim |
|
2 |
Baddeley,
et.al.; Memory |
377 |
|
Attention, Interest, and
Knowledge |
|
1 |
Baddeley,
et.al.; Memory |
378 |
|
Motivation |
|
1 |
|
|
|
|
|
|
|
|
|
|
|
|