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24 Cards in this Set
- Front
- Back
Bower & Winzenz
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4 learning conditions
(1)Repetition (2)Sentence Reading (3)Sentence Generation (4)Imagery-Interacting -Cued recall performance was best for interacting imagery |
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Why Does Forming Interacting Images Associate Info In Memory
2 Reasons |
(1)Memory for pictures is generally better than for words--Picture Superiority Effect
(2)Interaction helps tie info together in memory |
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Keyword Method
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Used to remember translation of foreign language
(1)Pronounce the foreign word (2)Find a keyword-English word that sound like all or part of foreign word (3)Form an interacting image of the keyword & english translation of foreign word |
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Technique for Remembering Persons Name When You See Their Face
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(1)When you hear the persons name, generate an english word that sounds like all or part of their name
(2)Pick a prominent feature of persons face (3)Form an image of the name word interacting with the prominent facial feature -Doubled chance of recalling the name correctly |
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Peg-Word Method
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Used to remember a list of items in a specified order
(1)Memorize set of numbers & rhyming words (2)Form interacting image using rhyming words & item being memorized |
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Memorizing Abstract Items - Peg-Word Method
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Convert abstract items into concrete word that sounds like it
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Method of Loci
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Like Peg-Word - Memorize items in specific order
(1)Imagine taking a walk through familiar place -At each landmark you form an interacting image of item to be memorized & the landmark (eg)Item to remember = milk Landmark = PUB --Imagine milk spilling onto the PUB |
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Von Restorff Effect
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Distinctive info is easier to retrieve than non-distinctive info
-Words can be made distinctive by presenting them in a different color, capital letters, read in a different voice -May be due to the distinctive item having a unique retrieval cue (that is not overloaded) (eg)Good memory for distinctive events: -Graduation -Natural Disasters -Rare Accidents |
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Levels-of-Processing Effect
Craik & Lockhard |
60 words presented 1 at a time followed by 1 of 3 questions
(1)Typecase (2)Rhyme (3)Category -Told not to memorize words just answer question -Deeply processed words were remembered best |
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Levels-of-Processing
Craik & Tulving |
Took subjects longer to make semantic decisions
-It may be processing time rather than level of processing that affects memory -Gave subjects time-consuming shallow task - Had to make judgments about patterns of vowels & consonants -Vowel Task--54% -Semantic Task--76% --Depth of processing is important, not how long or difficult processing task is |
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Intention to Learn
Craik & Tulving (#2) |
Repeated 1st experiment but added incentives to the levels of processing task - $
-Typecase = 6C-->51% -Rhyme = 3C-->62% -Category = 1C-->82% --Paying subjects had NO effect on recognition -The qualitative nature of the task, kind of operations carried out determines retention |
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2 Things That Make Semantic Level Work
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(1)Depth or distinctiveness-Depth at which an item is processed - Deeply procesed words remembered best-Deep processing forms distinctiveness
-Not time or difficult (2)Associations-Semantic info consists of highly detailed & richly interconnected assoiciations |
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Effects of Distinctiveness on Memory
-Levels of Processing |
Deep processing forms distinctive memories
-Subject S has Synesthesia--A stimulus in 1 sense triggers responses in other sense modalities |
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Activates Existing Associations
(1)Semantic Levels of Processing |
Semantic info consists of highly detailed and richly interconnected associations--Improves memory
-These associations (rather than the semantic nature of processing) aids memory Study: Craik & Tulving -Memory is better for words that subject answered yes to rather than no Yes=93% No=63% -To benefit from semantic processing, there must be existing associations in memory linking the studied words to info in the study task |
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Associations
(2) Slamecka & Graf |
Memory is imporced when a person generates, rather than reads the info
-Subjects who generated words recalled the words much better than those who just read the words--Generation Effect |
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Self-Reference Task
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Task that requires person to evaluate how well some item is descriptive of or relevant to themselves
-Shown 36 descriptive words-Mixture of high, medium, low likeable traits -Control Group-Memorize Words -Self-Reference Group-Rate how well word describes you Results: Control-Performance varied with word likeability Self-Reference-Performance was better |
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Implicit memory
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An unintentional, nonconscious form of retention
-Revealed when a person who may not remember prior experience with a task, performs the task readily -Priming - (eg)Person finding way out of maze faster 2nd time but not remembering going through the 1st time |
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Warrington & Weiskrantz
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Korsakoff amnesics & control patients - 8 5-letter high frequency words - tested 4 ways
(1)Free Recall (2)Recognition (3)Fragmented Words (4)Initial Letters --Recall & recognition-Amnesics did much worse --Fragmented Words & initial letters-Performance was equal between groups |
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Implicit vs. Explicit Memory
Jacoby & Dallas |
Normal memory consists of both an explicit(conscious) & an implicit(nonconscious/automatic) component
-Shown 60 5-letter words-Make 1 of 3 judments (1)Physical (2)Rhyme (3)Semantic Tests (1)Recognition (2)Perceptual Recognition-Level of processing has no effect on performance-Previously seen words are perceived better than new words--Priming |
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Implicit vs. Explicit
Graf, Mandler, & Haden |
2 groups
(1)Elaborative processing-Rate each of 20 words on a 7pt scale for how much they liked it (2)Surface processing-Decide if current word shared vowels with preceding word 2 TEsts (1)Stem Completion-(2)Free Recall --Level of processing affected free recall, not stem completion --Even when they couldn't remember studying a word they tended to use the word to complete the stem |
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Systems View
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Different neural structures underlie implicit & explicit memory
(1)Declarative Memory-Verbalizable Knowledge = Episodic & Semantic (2)Procedural Memory-Skilled behavior, no conscious recollection = Skills, priming, classical conditioning |
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Processing View
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Tranfer Appropriate Processing(TAP)
-performance on a test is best when the cognitive operations that are required by the test match those that were used during encoding -Presented 42 item list-Free Recall & Word Completion Picture Superiority Effect-39%pictures, 29%words (1)Implicit Test - Word Fragment -Pictures= 11%Priming rate, -Words= 27% priming rate Words are better than pictures (2)Picture-Fragment Completion -Pictures= 17%priming rate -Words= 31% priming rate -Test performance is best when retrieval cues & processing at retrieval match those that occured in the study |
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Implicit Memory Tests
Data-Driven |
-Word Stem Completion
-Word Fragment Completion -Picture Fragment Completion Data-Driven Tests--Priming is enhanced by the studied stimulus physically matching all or part of the test stimulus |
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Implicit Memory Tests
Conceptually Driven |
-Category Generation
-General Knowledge Questions Priming may occur if previous processing of a word makes it more likely that it would be given as a response Conceptually Driven--Priming is found to occur when processing of the stimulus is at a conceptual(semantic) level |