The mind's machine foundations of brain and behavior

Gespeichert in:
Bibliographische Detailangaben
Hauptverfasser: Watson, Neil V. 1962- (VerfasserIn), Breedlove, S. Marc 1954- (VerfasserIn)
Format: Buch
Sprache:English
Veröffentlicht: Sunderland, Mass. Sinauer Associates c2012
Schlagworte:
Online-Zugang:Inhaltsverzeichnis
Tags: Tag hinzufügen
Keine Tags, Fügen Sie den ersten Tag hinzu!

MARC

LEADER 00000nam a2200000zc 4500
001 BV040996484
003 DE-604
005 20191220
007 t|
008 130514s2012 xxua||| |||| 00||| eng d
010 |a 2012000922 
020 |a 9780878939336  |c pbk.  |9 978-0-87893-933-6 
020 |a 0878939334  |c pbk.  |9 0-87893-933-4 
035 |a (OCoLC)799091134 
035 |a (DE-599)BVBBV040996484 
040 |a DE-604  |b ger  |e aacr 
041 0 |a eng 
044 |a xxu  |c US 
049 |a DE-11 
050 0 |a QP376 
082 0 |a 612.8/2 
084 |a CZ 1300  |0 (DE-625)19229:  |2 rvk 
100 1 |a Watson, Neil V.  |d 1962-  |e Verfasser  |0 (DE-588)14401730X  |4 aut 
245 1 0 |a The mind's machine  |b foundations of brain and behavior  |c Neil V. Watson, S. Marc Breedlove 
264 1 |a Sunderland, Mass.  |b Sinauer Associates  |c c2012 
300 |a getr. Zählung  |b Ill.  |c 28 cm 
336 |b txt  |2 rdacontent 
337 |b n  |2 rdamedia 
338 |b nc  |2 rdacarrier 
500 |a Includes bibliographical references and index 
650 4 |a Brain  |v Textbooks 
650 4 |a Brain  |x Physiology  |v Textbooks 
650 4 |a Human behavior  |x Physiological aspects  |v Textbooks 
650 4 |a Psychobiology  |v Textbooks 
650 4 |a Neurophysiology  |v Textbooks 
650 4 |a Neuropsychology  |v Textbooks 
700 1 |a Breedlove, S. Marc  |d 1954-  |e Verfasser  |0 (DE-588)1163745138  |4 aut 
856 4 2 |m SWB Datenaustausch  |q application/pdf  |u http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=025974174&sequence=000001&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA  |3 Inhaltsverzeichnis 
943 1 |a oai:aleph.bib-bvb.de:BVB01-025974174 

Datensatz im Suchindex

_version_ 1819678491227979776
adam_text IMAGE 1 TABLE OF CONTENTS PREFACE XVI 1 CHAPTER AN INTRODUCTION TO BRAIN AND BEHAVIOR 2 WHAT S IN A NAME? 5 THE SCIENCE OF BRAIN AND BEHAVIOR SPANS PAST, PRESENT, AND FUTURE 5 THE ROLE OF THE BRAIN WAS UNCERTAIN TO SCHOLARS IN ANTIQUITY 5 ADVANCES IN EXPERIMENTAL METHODOLOGY PROPEL MODERN BIOLOGICAL PSYCHOLOGY 8 THE FUTURE OF BIOLOGICAL PSYCHOLOGY IS IN INTERDISCIPLINARY DISCOVERY AND KNOWLEDGE TRANSLATION 9 BOX 1.1 WE ARE ALL ALIKE, AND WE ARE ALL DIFFERENT 11 CAREFUL RESEARCH DESIGN IS CRITICAL FOR PROGRESS IN BRAIN RESEARCH 14 THREE KINDS OF STUDIES PROBE BRAIN-BEHAVIOR RELATIONSHIPS 14 BIOLOGICAL PSYCHOLOGISTS USE SEVERAL LEVELS OF ANALYSIS 15 ANIMAL RESEARCH IS CRUCIAL FOR LIFE SCIENCES RESEARCH, INCLUDING BIOLOGICAL PSYCHOLOGY 16 LOOKING FORWARD: A GLIMPSE INSIDE THE MIND S MACHINE 17 CHAPTER 1 VISUAL SUMMARY 19 2 CHAPTER ^ CELLS AND STRUCTURES: THE ANATOMY OF THE NERVOUS SYSTEM 20 THE NERVOUS SYSTEM IS COMPOSED OF CELLS 22 THE NEURON HAS FOUR PRINCIPAL DIVISIONS 22 INFORMATION IS RECEIVED THROUGH SYNAPSES 25 BOX 2.1 VISUALIZING THE CELLULAR STRUCTURE OF THE BRAIN 26 THE AXON IS SPECIALIZED FOR INTEGRATING AND TRANSMITTING INFORMATION 28 GLIAL CELLS PROTECT AND ASSIST NEURONS 28 NEURONS AND GLIAL CELLS FORM INFORMATION-PROCESSING CIRCUITS 29 THE NERVOUS SYSTEM EXTENDS THROUGHOUT THE BODY 29 THE PERIPHERAL NERVOUS SYSTEM HAS THREE COMPONENTS 30 THE CENTRAL NERVOUS SYSTEM CONSISTS OF THE BRAIN AND SPINAL CORD 34 BOX 2.2 THREE CUSTOMARY ORIENTATIONS FOR VIEWING THE BRAIN AND BODY 35 THE BRAIN IS DESCRIBED IN TERMS OF BOTH STRUCTURE AND FUNCTION 38 THE CEREBRAL CORTEX PERFORMS COMPLEX COGNITIVE PROCESSING 38 IMPORTANT NUCLEI ARE HIDDEN BENEATH THE CEREBRAL CORTEX 38 THE MIDBRAIN HAS SENSORY AND MOTOR SYSTEMS 39 THE BRAINSTEM CONTROLS VITAL BODY FUNCTIONS 40 SPECIALIZED SUPPORT SYSTEMS PROTECT AND NOURISH THE BRAIN 40 THE BRAIN FLOATS WITHIN LAYERS OF MEMBRANES 40 THE BRAIN RELIES ON TWO FLUIDS FOR SURVIVAL 41 BRAIN-IMAGING TECHNIQUES REVEAL THE STRUCTURE AND FUNCTION OF THE HUMAN BRAIN 42 CT USES X-RAYS TO REVEAL BRAIN STRUCTURE 42 MRI MAPS DENSITY TO DEDUCE BRAIN STRUCTURE WITH HIGH DETAIL 43 FUNCTIONAL MRI USES LOCAL CHANGES IN METABOLISM TO IDENTIFY ACTIVE BRAIN REGIONS 44 PET TRACKS RADIOACTIVE SUBSTANCES TO PRODUCE IMAGES OF BRAIN ACTIVITY 44 RESEARCHERS AT WORK SUBTRACTIVE ANALYSIS ISOLATES SPECIFIC BRAIN ACTIVITY 44 MAGNETISM CAN BE USED TO STUDY BRAIN ACTIVITY 45 CHAPTER 2 VISUAL SUMMARY 46 IMAGE 2 VIII TABLE OF CONTENTS CHAPTER J NEUROPHYSIOLOGY: THE GENERATION, TRANSMISSION, AND INTEGRATION OF NEURAL SIGNALS 48 ELECTRICAL SIGNALS ARE THE VOCABULARY OF THE NERVOUS SYSTEM 50 A BALANCE OF ELECTROCHEMICAL FORCES PRODUCES THE RESTING POTENTIAL OF NEURONS 50 A THRESHOLD AMOUNT OF DEPOLARIZATION TRIGGERS AN ACTION POTENTIAL 54 IONIC MECHANISMS UNDERLIE THE ACTION POTENTIAL 55 ACTION POTENTIALS ARE ACTIVELY PROPAGATED ALONG THE AXON 57 BOX 3.1 ACTION POTENTIALS ACT, IN MANY WAYS, LIKE A FLUSHING TOILET 60 SYNAPSES CAUSE LOCAL CHANGES IN THE POSTSYNAPTIC MEMBRANE POTENTIAL 60 SPATIAL SUMMATION AND TEMPORAL SUMMATION INTEGRATE SYNAPTIC INPUTS 62 SYNAPTIC TRANSMISSION REQUIRES A SEQUENCE OF EVENTS 64 ACTION POTENTIALS CAUSE THE RELEASE OF TRANSMITTER MOLECULES INTO THE SYNAPTIC CLEFT 64 RECEPTOR MOLECULES RECOGNIZE TRANSMITTERS 65 THE ACTION OF SYNAPTIC TRANSMITTERS IS STOPPED RAPIDLY 66 NEURAL CIRCUITS UNDERLIE REFLEXES 67 GROSS ELECTRICAL ACTIVITY OF THE HUMAN BRAIN 69 ELECTRICAL STORMS IN THE BRAIN CAN CAUSE SEIZURES 69 RESEARCHERS AT WORK SURGICAL PROBING OF THE BRAIN REVEALED A MAP OF THE BODY 71 CHAPTER 3 VISUAL SUMMARY 74 CHAPTER 4 THE CHEMISTRY OF BEHAVIOR: NEUROTRANSMITTERS AND NEUROPHARMACOLOGY 76 ELECTRICAL SIGNALS ARE TURNED INTO CHEMICAL SIGNALS AT SYNAPSES 79 RECEPTOR PROTEINS RECOGNIZE TRANSMITTERS AND THEIR MIMICS 79 MANY NEUROTRANSMITTERS HAVE BEEN IDENTIFIED 80 RESEARCHERS AT WORK THE FIRST TRANSMITTER TO BE DISCOVERED WAS ACETYLCHOLINE 81 NEUROTRANSMITTER SYSTEMS FORM A COMPLEX ARRAY IN THE BRAIN 82 FOUR AMINE NEUROTRANSMITTERS PROJECT THROUGHOUT THE BRAIN 82 SOME AMINO ACIDS ACT AS NEUROTRANSMITTERS 84 MANY PEPTIDES FUNCTION AS NEUROTRANSMITTERS 84 SOME NEUROTRANSMITTERS ARE GASES 85 DRUGS FIT LIKE KEYS INTO MOLECULAR LOCKS 85 THE EFFECTS OF A DRUG DEPEND ON ITS DOSE 87 DRUG DOSES ARE ADMINISTERED IN MANY DIFFERENT WAYS 88 REPEATED TREATMENTS CAN REDUCE THE EFFECTIVENESS OF DRUGS 89 DRUGS AFFECT EACH STAGE OF NEURAL CONDUCTION AND SYNAPTIC TRANSMISSION 89 SOME DRUGS ALTER PRESYNAPTIC PROCESSES 89 SOME DRUGS ALTER POSTSYNAPTIC PROCESSES 91 DRUGS THAT AFFECT THE BRAIN CAN BE DIVIDED INTO FUNCTIONAL CLASSES 92 PSYCHOACTIVE DRUGS RELIEVE SEVERE SYMPTOMS 92 PSYCHOACTIVE DRUGS ALTER CONSCIOUSNESS 94 DRUG ABUSE IS PERVASIVE 100 SEVERAL PERSPECTIVES HELP US UNDERSTAND DRUG ABUSE 100 BOX 4.1 THE TERMINOLOGY OF SUBSTANCE-RELATED DISORDERS 101 DRUG USE, ABUSE, AND DEPENDENCE CAN BE PREVENTED OR TREATED IN MULTIPLE WAYS 102 CHAPTER 4 VISUAL SUMMARY 104 IMAGE 3 TABLE OF CONTENTS UI HAPTER O THE SENSORIMOTOR SYSTEM 106 PART I SENSORY PROCESSING AND THE SOMATOSENSORY SYSTEM 108 RECEPTOR CELLS CONVERT SENSORY SIGNALS INTO ELECTRICAL ACTIVITY 110 SENSORY INFORMATION PROCESSING IS SELECTIVE AND ANALYTICAL 111 SENSORY EVENTS ARE ENCODED AS STREAMS OF ACTION POTENTIALS 112 SENSORY NEURONS RESPOND TO STIMULI FALLING IN THEIR RECEPTIVE FIELDS 112 RECEPTORS MAY SHOW ADAPTATION TO UNCHANGING STIMULI 113 SOMETIMES WE NEED RECEPTORS TO BE QUIET 113 SUCCESSIVE LEVELS OF THE CNS PROCESS SENSORY INFORMATION 114 SENSORY CORTEX IS HIGHLY ORGANIZED 115 SENSORY BRAIN REGIONS INFLUENCE ONE ANOTHER AND CHANGE OVER TIME 116 PART II PAIN: THE BODY S EMERGENCY SIGNALING SYSTEM 108 HUMAN PAIN VARIES IN SEVERAL DIMENSIONS 117 A DISCRETE PAIN PATHWAY PROJECTS FROM BODY TO BRAIN 118 PERIPHERAL RECEPTORS GET THE INITIAL MESSAGE 118 SPECIAL NEURAL PATHWAYS CARRY PAIN INFORMATION TO THE BRAIN 119 PAIN CONTROL CAN BE DIFFICULT 120 ANALGESIC DRUGS ARE HIGHLY EFFECTIVE 120 ELECTRICAL STIMULATION CAN SOMETIMES RELIEVE PAIN 121 PLACEBOS EFFECTIVELY CONTROL PAIN IN SOME PEOPLE, BUT NOT ALL 121 ACTIVATION OF ENDOGENOUS OPIOIDS RELIEVES PAIN 121 PART III MOVEMENT AND THE MOTOR SYSTEM 122 BEHAVIOR REQUIRES MOVEMENTS THAT ARE PRECISELY PROGRAMMED AND MONITORED 122 A COMPLEX NEURAL SYSTEM CONTROLS MUSCLES TO CREATE BEHAVIOR 125 MUSCLES AND THE SKELETON WORK TOGETHER TO MOVE THE BODY 125 SENSORY FEEDBACK FROM MUSCLES, TENDONS, AND JOINTS GOVERNS MOVEMENT 127 THE SPINAL CORD MEDIATES AUTOMATIC RESPONSES AND RECEIVES INPUTS FROM THE BRAIN 129 MOTOR CORTEX PLANS AND EXECUTES MOVEMENTS-AND MORE 131 RESEARCHERS AT WORK MIRROR NEURONS IN PREMOTOR CORTEX TRACK MOVEMENTS IN OTHERS 134 EXTRAPYRAMIDAL SYSTEMS REGULATE AND FINE-TUNE MOTOR COMMANDS 136 DAMAGE TO EXTRAPYRAMIDAL SYSTEMS IMPAIRS MOVEMENT 137 CHAPTER 5 VISUAL SUMMARY 138 6 CHAPTER O HEARING, BALANCE, TASTE, AND SMELL 140 PART I HEARING AND BALANCE 142 BOX 6.1 THE BASICS OF SOUND 142 EACH PART OF THE EAR PERFORMS A SPECIFIC FUNCTION IN HEARING 143 THE EXTERNAL EAR CAPTURES, FOCUSES, AND FILTERS SOUND 143 THE MIDDLE EAR CONCENTRATES SOUND ENERGIES 144 RESEARCHERS AT WORK THE COCHLEA CONVERTS VIBRATIONAL ENERGY INTO NEURAL ACTIVITY 145 THE HAIR CELLS TRANSDUCE MOVEMENTS OF THE BASILAR MEMBRANE INTO ELECTRICAL SIGNALS 146 AUDITORY SYSTEM PATHWAYS RUN FROM THE BRAINSTEM TO THE CORTEX 149 OUR SENSE OF PITCH RELIES ON TWO SIGNALS FROM THE COCHLEA 150 BRAINSTEM SYSTEMS COMPARE THE EARS TO LOCALIZE SOUNDS 151 THE AUDITORY CORTEX PERFORMS COMPLEX TASKS IN THE PERCEPTION OF SOUND 152 DEAFNESS IS A WIDESPREAD PROBLEM 154 THE INNER EAR PROVIDES OUR SENSE OF BALANCE 156 SOME FORMS OF VESTIBULAR EXCITATION PRODUCE MOTION SICKNESS 159 PART II THE CHEMICAL SENSES: TASTE AND SMELL 159 THE HUMAN TONGUE DETECTS FIVE BASIC CHEMICAL TASTES 159 TASTES EXCITE SPECIALIZED RECEPTOR CELLS ON THE TONGUE 159 DIFFERENT CELLULAR PROCESSES TRANSDUCE THE BASIC TASTES 160 TASTE INFORMATION IS TRANSMITTED TO SEVERAL PARTS OF THE BRAIN 162 CHEMICALS IN THE AIR ELICIT ODOR SENSATIONS 162 THE SENSE OF SMELL STARTS WITH RECEPTOR NEURONS IN THE NOSE 162 OLFACTORY INFORMATION PROJECTS FROM THE OLFACTORY BULBS TO SEVERAL BRAIN REGIONS 164 MANY VERTEBRATES POSSESS A VOMERONASAL SYSTEM 165 CHAPTER 6 VISUAL SUMMARY 166 IMAGE 4 TABLE OF CONTENTS 7 CHAPTER / VISION: FROM EYE TO BRAIN 168 THE VISUAL SYSTEM EXTENDS FROM THE EYE TO THE BRAIN 170 THE VERTEBRATE EYE ACTS IN SOME WAYS LIKE A CAMERA 170 VISUAL PROCESSING BEGINS IN THE RETINA 172 PHOTORECEPTORS RESPOND TO LIGHT BY RELEASING LESS NEUROTRANSMITTER 173 DIFFERENT MECHANISMS ENABLE THE EYES TO WORK OVER A WIDE RANGE OF LIGHT INTENSITIES 174 ACUITY IS BEST IN FOVEAL VISION 175 NEURAL SIGNALS TRAVEL FROM THE RETINA TO SEVERAL BRAIN REGIONS 178 THE RETINA PROJECTS TO THE BRAIN IN A TOPOGRAPHIC FASHION 179 NEURONS AT DIFFERENT LEVELS OF THE VISUAL SYSTEM HAVE VERY DIFFERENT RECEPTIVE FIELDS 180 PHOTORECEPTORS EXCITE SOME RETINAL NEURONS AND INHIBIT OTHERS 180 NEURONS IN THE RETINA AND THE LGN HAVE CONCENTRIC RECEPTIVE FIELDS 181 RESEARCHERS AT WORK NEURONS IN THE VISUAL CORTEX HAVE VARIED RECEPTIVE FIELDS 184 NEURONS IN THE VISUAL CORTEX BEYOND AREA VI HAVE COMPLEX RECEPTIVE FIELDS AND HELP IDENTIFY FORMS 187 PERCEPTION OF VISUAL MOTION IS ANALYZED BY A SPECIAL SYSTEM THAT INCLUDES CORTICAL AREA V5 188 COLOR VISION DEPENDS ON SPECIAL CHANNELS FROM THE RETINAL CONES THROUGH CORTICAL AREA V4 189 COLOR IS CREATED BY THE VISUAL SYSTEM 189 COLOR PERCEPTION REQUIRES RECEPTOR CELLS THAT DIFFER IN THEIR SENSITIVITIES TO DIFFERENT WAVELENGTHS 190 BOX 7.1 MOST MAMMALIAN SPECIES HAVE SOME COLOR VISION 193 SOME RETINAL GANGLION CELLS AND LGN CELLS SHOW SPECTRAL OPPONENCY 194 SOME VISUAL CORTICAL CELLS AND REGIONS APPEAR TO BE SPECIALIZED FOR COLOR PERCEPTION 195 THE MANY CORTICAL VISUAL AREAS ARE ORGANIZED INTO TWO MAJOR STREAMS 196 VISUAL NEUROSCIENCE CAN BE APPLIED TO ALLEVIATE SOME VISUAL DEFICIENCIES 198 IMPAIRMENT OF VISION OFTEN CAN BE PREVENTED OR REDUCED 198 INCREASED EXERCISE CAN RESTORE FUNCTION TO A PREVIOUSLY DEPRIVED OR NEGLECTED EYE 199 CHAPTER 7 VISUAL SUMMARY 200 CHAPTER 8 HORMONES AND SEX 202 PART I THE ENDOCRINE SYSTEM 204 HORMONES ACT IN A GREAT VARIETY OF WAYS THROUGHOUT THE BODY 204 RESEARCHERS AT WORK OUR CURRENT UNDERSTANDING OF HORMONES DEVELOPED IN STAGES 204 HORMONES ARE ONE OF SEVERAL TYPES OF CHEMICAL COMMUNICATION 206 HORMONES CAN BE CLASSIFIED BY CHEMICAL STRUCTURE 207 HORMONES ACT ON A WIDE VARIETY OF CELLULAR MECHANISMS 208 HORMONES INITIATE ACTIONS BY BINDING TO RECEPTOR MOLECULES 208 BOX 8.1 TECHNIQUES OF MODERN BEHAVIORAL ENDOCRINOLOGY 210 HORMONES CAN HAVE DIFFERENT EFFECTS ON DIFFERENT TARGET ORGANS 211 EACH ENDOCRINE GLAND SECRETES SPECIFIC HORMONES 212 THE POSTERIOR PITUITARY RELEASES TWO HORMONES DIRECTLY INTO THE BLOODSTREAM 213 POSTERIOR PITUITARY HORMONES CAN AFFECT SOCIAL BEHAVIOR 215 FEEDBACK CONTROL MECHANISMS REGULATE THE SECRETION OF HORMONES 215 HYPOTHALAMIC RELEASING HORMONES GOVERN THE ANTERIOR PITUITARY 216 BOX 8.2 STRESS AND GROWTH: PSYCHOSOCIAL DWARF ISM 218 TWO ANTERIOR PITUITARY TROPIC HORMONES ACT ON THE GONADS 219 THE GONADS PRODUCE STEROID HORMONES, REGULATING REPRODUCTION 219 HORMONAL AND NEURAL SYSTEMS INTERACT TO PRODUCE INTEGRATED RESPONSES 221 PART II REPRODUCTIVE BEHAVIOR 223 REPRODUCTIVE BEHAVIOR CAN BE DIVIDED INTO FOUR STAGES 223 COPULATION BRINGS GAMETES TOGETHER 225 RESEARCHERS AT WORK GONADAL STEROIDS ACTIVATE SEXUAL BEHAVIOR 225 THE NEURAL CIRCUITRY OF THE BRAIN REGULATES REPRODUCTIVE BEHAVIOR 227 IMAGE 5 TABLE OF CONTENTS OVARIAN STEROIDS ACT ON A LORDOSIS CIRCUIT THAT SPANS FROM BRAIN TO MUSCLE 227 ANDROGENS ACTIVATE A NEURAL SYSTEM FOR MALE REPRODUCTIVE BEHAVIOR 228 PARENTAL BEHAVIORS ARE GOVERNED BY SEVERAL SEX-RELATED HORMONES 229 THE HALLMARK OF HUMAN SEXUAL BEHAVIOR IS DIVERSITY 230 HORMONES PLAY ONLY A PERMISSIVE ROLE IN HUMAN SEXUAL BEHAVIOR 232 PART III SEXUAL DIFFERENTIATION AND ORIENTATION 232 GENETIC AND HORMONAL MECHANISMS GUIDE THE DEVELOPMENT OF MASCULINE AND FEMININE STRUCTURES 233 SEX CHROMOSOMES DIRECT SEXUAL DIFFERENTIATION OF THE GONADS 233 GONADAL HORMONES DIRECT SEXUAL DIFFERENTIATION OF THE BODY 233 9 CHANGES IN THE SEQUENCE OF SEXUAL DIFFERENTIATION RESULT IN PREDICTABLE CHANGES IN DEVELOPMENT 234 DYSFUNCTIONAL ANDROGEN RECEPTORS CAN BLOCK THE MASCULINIZATION OF MALES 235 SOME PEOPLE SEEM TO CHANGE SEX AT PUBERTY 236 HOW SHOULD WE DEFINE GENDER-BY GENES, GONADS, GENITALS? 236 RESEARCHERS AT WORK GONADAL HORMONES DIRECT SEXUAL DIFFERENTIATION OF BEHAVIOR AND THE BRAIN 237 SEVERAL REGIONS OF THE NERVOUS SYSTEM DISPLAY PROMINENT SEXUAL DIMORPHISM 239 SOCIAL INFLUENCES ALSO AFFECT SEXUAL DIFFERENTIATION OF THE NERVOUS SYSTEM 242 DO FETAL HORMONES MASCULINIZE HUMAN BEHAVIORS IN ADULTHOOD? 243 WHAT DETERMINES A PERSON S SEXUAL ORIENTATION? 244 CHAPTER 8 VISUAL SUMMARY 247 CHAPTER Y HOMEOSTASIS: ACTIVE REGULATION OF THE INTERNAL ENVIRONMENT 248 PART I PRINCIPLES OF HOMEOSTASIS 250 HOMEOSTATIC SYSTEMS SHARE SEVERAL KEY FEATURES 250 INTERNAL STATES ARE GOVERNED THROUGH NEGATIVE FEEDBACK 250 REDUNDANCY IS A FEATURE OF MANY HOMEOSTATIC SYSTEMS 251 BEHAVIORAL MECHANISMS ARE CRUCIAL FOR HOMEOSTASIS 252 PART II FLUID REGULATION 253 WATER IN THE HUMAN BODY SHUTTLES BETWEEN TWO MAJOR COMPARTMENTS 254 TWO INTERNAL CUES TRIGGER THIRST 255 HYPOVOLEMIC THIRST IS TRIGGERED BY A LOSS OF WATER VOLUME 255 OSMOTIC THIRST OCCURS WHEN THE EXTRACELLULAR FLUID BECOMES TOO SALTY 256 WE DON T STOP DRINKING JUST BECAUSE THE THROAT AND MOUTH ARE WET 257 WATER BALANCE DEPENDS ON THE REGULATION OF SALT IN THE BODY 257 PART III FOOD AND ENERGY REGULATION 258 NUTRIENT REGULATION HELPS PREPARE FOR FUTURE NEEDS 258 INSULIN IS ESSENTIAL FOR OBTAINING, STORING, AND USING FOOD ENERGY 260 THE HYPOTHALAMUS COORDINATES MULTIPLE SYSTEMS THAT CONTROL HUNGER 261 RESEARCHERS AT WORK LESION STUDIES SHOWED THAT THE HYPOTHALAMUS IS CRUCIAL FOR APPETITE 261 HORMONES FROM THE BODY DRIVE A HYPOTHALAMIC APPETITE CONTROLLER 263 OTHER SYSTEMS ALSO PLAY A ROLE IN HUNGER AND SATIETY 265 OBESITY IS DIFFICULT TO TREAT 266 EATING DISORDERS CAN BE LIFE-THREATENING 267 CHAPTER 9 VISUAL SUMMARY 269 CHAPTER 10 BIOLOGICAL RHYTHMS AND SLEEP 270 PART I BIOLOGICAL RHYTHMS 272 MANY ANIMALS SHOW DAILY RHYTHMS IN ACTIVITY 272 ORCADIAN RHYTHMS ARE GENERATED BY AN ENDOGENOUS CLOCK 273 THE HYPOTHALAMUS HOUSES A CIRCADIAN CLOCK 274 RESEARCHERS AT WORK TRANSPLANTS PROVE THAT THE SCN PRODUCES A CIRCADIAN RHYTHM 275 IN MAMMALS, LIGHT INFORMATION FROM THE EYES REACHES THE SCN DIRECTLY 277 CIRCADIAN RHYTHMS HAVE BEEN GENETICALLY DISSECTED IN FLIES AND MICE 277 PART II SLEEPING AND WAKING 279 HUMAN SLEEP EXHIBITS DIFFERENT STAGES 279 WE DO OUR MOST VIVID DREAMING DURING REM SLEEP 282 IMAGE 6 X II TABLE OF CONTENTS DIFFERENT SPECIES PROVIDE CLUES ABOUT THE EVOLUTION OF SLEEP 283 OUR SLEEP PATTERNS CHANGE ACROSS THE LIFE SPAN 284 MAMMALS SLEEP MORE DURING INFANCY THAN IN ADULTHOOD 284 MOST PEOPLE SLEEP APPRECIABLY LESS AS THEY AGE 286 MANIPULATING SLEEP REVEALS AN UNDERLYING STRUCTURE 286 SLEEP DEPRIVATION IMPAIRS COGNITIVE FUNCTIONING BUT DOES NOT CAUSE INSANITY 286 SLEEP RECOVERY MAY TAKE TIME 287 BOX 10.1 SLEEP DEPRIVATION CAN BE FATAL 288 WHAT ARE THE BIOLOGICAL FUNCTIONS OF SLEEP? 289 SLEEP CONSERVES ENERGY 289 SLEEP ENFORCES NICHE ADAPTATION 289 SLEEP RESTORES THE BODY 289 SLEEP MAY AID MEMORY CONSOLIDATION 290 SOME HUMANS SLEEP REMARKABLY LITTLE, YET FUNCTION NORMALLY 290 AT LEAST FOUR INTERACTING NEURAL SYSTEMS UNDERLIE SLEEP 291 RESEARCHERS AT WORK THE FOREBRAIN GENERATES SLOW-WAVE SLEEP 291 THE RETICULAR FORMATION WAKES UP THE FOREBRAIN 292 THE PONS TRIGGERS REM SLEEP 293 A HYPOTHALAMIC SLEEP CENTER WAS REVEALED BY THE STUDY OF NARCOLEPSY 294 SLEEP DISORDERS CAN BE SERIOUS, EVEN LIFE- THREATENING 296 SOME MINOR DYSFUNCTIONS ARE ASSOCIATED WITH SLEEP 296 INSOMNIACS HAVE TROUBLE FALLING ASLEEP OR STAYING ASLEEP 296 ALTHOUGH MANY DRUGS AFFECT SLEEP, THERE IS NO PERFECT SLEEPING PILL 298 CHAPTER 10 VISUAL SUMMARY 299 CHAPTER II EMOTIONS, AGGRESSION, AND STRESS 300 PART I EMOTIONAL PROCESSING 302 BROAD THEORIES OF EMOTION EMPHASIZE BODILY RESPONSES 302 DO EMOTIONS CAUSE BODILY CHANGES, OR VICE VERSA? 303 BOX 11.1 LIE DETECTOR? 304 RESEARCHERS AT WORK STANLEY SCHACTER PROPOSED A COGNITIVE INTERPRETATION OF STIMULI AND VISCERAL STATES 304 FACIAL EXPRESSIONS SUGGEST A CORE SET OF EMOTIONS 306 FACIAL EXPRESSIONS HAVE COMPLEX FUNCTIONS IN COMMUNICATION 306 FACIAL EXPRESSIONS ARE MEDIATED BY MUSCLES, CRANIAL NERVES, AND CNS PATHWAYS 308 HOW DID EMOTION AND EMOTIONAL DISPLAYS EVOLVE? 309 DO DISTINCT BRAIN CIRCUITS MEDIATE EMOTIONS? 311 ELECTRICAL STIMULATION OF THE BRAIN CAN PRODUCE EMOTIONAL EFFECTS 311 BRAIN LESIONS ALSO AFFECT EMOTIONS 311 THE AMYGDALA GOVERNS A FEAR CIRCUIT 312 THE TWO CEREBRAL HEMISPHERES PROCESS EMOTION DIFFERENTLY 315 DIFFERENT EMOTIONS ACTIVATE DIFFERENT REGIONS OF THE HUMAN BRAIN 315 PART II AGGRESSION AND STRESS 316 NEURAL CIRCUITRY, HORMONES, AND SYNAPTIC TRANSMITTERS MEDIATE VIOLENCE AND AGGRESSION 317 ANDROGENS SEEM TO INCREASE AGGRESSION 317 ALTERATIONS IN NEUROTRANSMITTER LEVELS ARE ASSOCIATED WITH AGGRESSION 318 THE BIOPSYCHOLOGY OF HUMAN VIOLENCE IS A TOPIC OF CONTROVERSY 319 STRESS ACTIVATES MANY BODILY RESPONSES 319 THE STAGES OF THE STRESS RESPONSE 319 INDIVIDUAL DIFFERENCES IN THE STRESS RESPONSE 321 STRESS AND EMOTIONS INFLUENCE THE IMMUNE SYSTEM 322 WHY DOES STRESS SUPPRESS THE IMMUNE SYSTEM? 323 CHAPTER 11 VISUAL SUMMARY 325 CHAPTER 12 PSYCHOPATHOLOGY: THE BIOLOGY OF BEHAVIORAL DISORDERS 326 THE TOLL OF PSYCHIATRIC DISORDERS IS HUGE 328 SCHIZOPHRENIA IS A MAJOR NEUROBIOLOGICAL CHALLENGE IN PSYCHIATRY 329 SCHIZOPHRENIA IS CHARACTERIZED BY AN UNUSUAL ARRAY OF SYMPTOMS 329 SCHIZOPHRENIA HAS A HERITABLE COMPONENT 329 RESEARCHERS AT WORK AN INTEGRATIVE MODEL OF SCHIZO- PHRENIA EMPHASIZES THE INTERACTION OF MULTIPLE FACTORS 331 THE BRAINS OF SOME PATIENTS WITH SCHIZOPHRENIA SHOW STRUCTURAL CHANGES 333 FUNCTIONAL MAPS REVEAL DIFFERENCES IN SCHIZOPHRENIC BRAINS 334 IMAGE 7 TABLE OF CONTENTS ANTIPSYCHOTIC MEDICATIONS REVOLUTIONIZED THE TREATMENT OF SCHIZOPHRENIA 336 BOX 12.1 LONG-TERM EFFECTS OF ANTIPSYCHOTIC DRUGS 337 MOOD DISORDERS ARE A MAJOR PSYCHIATRIC CATEGORY 340 DEPRESSION IS THE MOST PREVALENT MOOD DISORDER 340 INHERITANCE IS AN IMPORTANT DETERMINANT OF DEPRESSION 341 THE BRAIN CHANGES WITH DEPRESSION 341 A WIDE VARIETY OF TREATMENTS ARE AVAILABLE FOR DEPRESSION 341 WHY DO MORE FEMALES THAN MALES SUFFER FROM DEPRESSION? 343 SLEEP CHARACTERISTICS CHANGE IN AFFECTIVE DISORDERS 344 SCIENTISTS ARE STILL SEARCHING FOR ANIMAL MODELS OF DEPRESSION 344 PEOPLE WITH BIPOLAR DISORDER SHOW REPEATING MOOD CYCLES 345 THERE ARE SEVERAL TYPES OF ANXIETY DISORDERS 346 DRUG TREATMENT OF ANXIETY PROVIDES CLUES TO THE MECHANISMS OF THIS DISORDER 346 IN POSTTRAUMATIC STRESS DISORDER, HORRIBLE MEMORIES WON T GO AWAY 347 IN OBSESSIVE-COMPULSIVE DISORDER, THOUGHTS AND ACTS KEEP REPEATING 348 BOX 12.2 TICS, TWITCHES, AND SNORTS: THE UNUSUAL CHARACTER OF TOURETTE S SYNDROME 350 CHAPTER 12 VISUAL SUMMARY 352 CHAPTER 13 MEMORY, LEARNING, AND DEVELOPMENT 354 PART I TYPES OF LEARNING AND MEMORY 356 THERE ARE SEVERAL KINDS OF MEMORY AND LEARNING 356 FOR PATIENT H.M., THE PRESENT VANISHED INTO OBLIVION 356 RESEARCHERS AT WORK WHICH BRAIN STRUCTURES ARE IMPORTANT FOR DECLARATIVE MEMORY? 359 DAMAGE TO THE MAMMILLARY BODIES CAN ALSO CAUSE AMNESIA 360 BRAIN DAMAGE CAN DESTROY AUTOBIOGRAPHICAL MEMORIES WHILE SPARING GENERAL MEMORIES 360 DIFFERENT FORMS OF NONDECLARATIVE MEMORY INVOLVE DIFFERENT BRAIN REGIONS 362 DIFFERENT TYPES OF NONDECLARATIVE MEMORY SERVE VARYING FUNCTIONS 362 ANIMAL RESEARCH CONFIRMS THE VARIOUS BRAIN REGIONS INVOLVED IN DIFFERENT ATTRIBUTES OF MEMORY 363 BRAIN REGIONS INVOLVED IN LEARNING AND MEMORY: A SUMMARY 365 SUCCESSIVE PROCESSES CAPTURE, STORE, AND RETRIEVE INFORMATION IN THE BRAIN 365 STM AND LTM APPEAR TO BE DIFFERENT PROCESSES 366 BOX 13.1 EMOTIONS AND MEMORY 367 LONG-TERM MEMORY HAS VAST CAPACITY BUT IS SUBJECT TO DISTORTION 369 PART II NEURAL MECHANISMS OF MEMORY 370 MEMORY STORAGE REQUIRES NEURONAL REMODELING 370 PLASTIC CHANGES AT SYNAPSES CAN BE PHYSIOLOGICAL OR STRUCTURAL 371 VARIED EXPERIENCES AND LEARNING CAUSE THE BRAIN TO CHANGE AND GROW 371 INVERTEBRATE NERVOUS SYSTEMS SHOW SYNAPTIC PLASTICITY 372 CLASSICAL CONDITIONING RELIES ON CIRCUITS IN THE MAMMALIAN CEREBELLUM 373 SYNAPTIC PLASTICITY CAN BE MEASURED IN SIMPLE HIPPOCAMPAL CIRCUITS 375 NMDA RECEPTORS AND AMPA RECEPTORS COLLABORATE IN LTP 377 IS LTP A MECHANISM OF MEMORY FORMATION? 379 PART III DEVELOPMENT OF THE BRAIN 380 GROWTH AND DEVELOPMENT OF THE BRAIN ARE ORDERLY PROCESSES 380 DEVELOPMENT OF THE NERVOUS SYSTEM CAN BE DIVIDED INTO SIX DISTINCT STAGES 380 CELL PROLIFERATION PRODUCES CELLS THAT BECOME NEURONS OR GLIAL CELLS 382 IN THE ADULT BRAIN, NEWLY BORN NEURONS AID LEARNING 383 THE DEATH OF MANY NEURONS IS A NORMAL PART OF DEVELOPMENT 384 AN EXPLOSION OF SYNAPSE FORMATION IS FOLLOWED BY SYNAPSE REARRANGEMENT 385 GENES INTERACT WITH EXPERIENCE TO GUIDE BRAIN DEVELOPMENT 387 GENOTYPE IS FIXED AT BIRTH, BUT PHENOTYPE CHANGES THROUGHOUT LIFE 387 EXPERIENCE REGULATES GENE EXPRESSION IN THE DEVELOPING AND MATURE BRAIN 388 THE BRAIN CONTINUES TO CHANGE AS WE GROW OLDER 390 MEMORY IMPAIRMENT CORRELATES WITH HIPPOCAMPAL SHRINKAGE DURING AGING 390 ALZHEIMER S DISEASE IS ASSOCIATED WITH A DECLINE IN CEREBRAL METABOLISM 390 CHAPTER 13 VISUAL SUMMARY 393 IMAGE 8 XIV TABLE OF CONTENTS CHAPTER 14 ATTENTION AND CONSCIOUSNESS 394 ATTENTION FOCUSES COGNITIVE PROCESSING ON SPECIFIC OBJECTS 396 THERE ARE LIMITS ON ATTENTION 397 ATTENTION FILTERS INFORMATION EARLY OR LATE IN SENSORY PROCESSING 397 ATTENTION MAY BE ENDOGENOUS OR EXOGENOUS 398 RESEARCHERS AT WORK WE CAN CHOOSE WHICH STIMULI WE WILL ATTEND TO 398 SOME STIMULI ARE HARD TO IGNORE 400 BOX 14.1 REACTION-TIME RESPONSES, FROM INPUT TO OUTPUT 400 WE USE VISUAL SEARCH TO MAKE SENSE OF A CLUTTERED WORLD 402 THE ELECTRICAL ACTIVITY OF THE BRAIN PROVIDES CLUES ABOUT MECHANISMS OF ATTENTION 403 DISTINCTIVE PATTERNS OF BRAIN ELECTRICAL ACTIVITY MARK VOLUNTARY SHIFTS OF ATTENTION 404 REFLEXIVE VISUAL ATTENTION HAS ITS OWN ELECTROPHYSIOLOGICAL SIGNATURE 406 ATTENTION AFFECTS THE ACTIVITY OF INDIVIDUAL NEURONS 407 MANY BRAIN REGIONS ARE INVOLVED IN PROCESSES OF ATTENTION 408 TWO SUBCORTICAL SYSTEMS GUIDE SHIFTS OF ATTENTION 408 SEVERAL CORTICAL AREAS ARE CRUCIAL FOR GENERATING AND DIRECTING ATTENTION 409 BRAIN DISORDERS CAN CAUSE SPECIFIC IMPAIRMENTS OF ATTENTION 411 DIFFICULTY WITH SUSTAINED ATTENTION CAN SOMETIMES BE RELIEVED WITH STIMULANTS 412 CONSCIOUSNESS AND ATTENTION ARE CLOSELY LINKED 413 SOME ASPECTS OF CONSCIOUSNESS ARE EASIER TO STUDY THAN OTHERS 414 BOX 14.2 NEUROECONOMICS IDENTIFIES BRAIN REGIONS ACTIVE DURING DECISION MAKING 417 THE FRONTAL LOBES GOVERN OUR MOST COMPLEX BEHAVIORS 417 FRONTAL LOBE INJURY IN HUMANS LEADS TO EMOTIONAL, MOTOR, AND COGNITIVE CHANGES 418 CHAPTER 14 VISUAL SUMMARY 421 CHAPTER 15 LANGUAGE AND OUR DIVIDED BRAIN 422 PART I SPEECH AND LANGUAGE 424 SOME ASPECTS OF LANGUAGE ARE INNATE, BUT OTHERS MUST BE LEARNED 424 CAN NONHUMAN PRIMATES ACQUIRE LANGUAGE WITH TRAINING? 426 VOCAL BEHAVIOR IS A FEATURE OF MANY DIFFERENT SPECIES 427 LANGUAGE DISORDERS RESULT FROM REGION-SPECIFIC BRAIN INJURIES 429 DAMAGE TO A LEFT ANTERIOR SPEECH ZONE CAUSES NONFLUENT (OR BROCA S) APHASIA 430 DAMAGE TO A LEFT POSTERIOR SPEECH ZONE CAUSES FLUENT (OR WERNICKE S) APHASIA 430 WIDESPREAD LEFT-HEMISPHERE DAMAGE CAN OBLITERATE LANGUAGE CAPABILITIES 430 DISCONNECTION OF LANGUAGE REGIONS MAY RESULT IN SPECIFIC VERBAL PROBLEMS 432 READING SKILLS ARE DIFFICULT TO ACQUIRE AND FREQUENTLY IMPAIRED 434 BRAIN DAMAGE MAY CAUSE SPECIFIC IMPAIRMENTS IN READING 434 SOME PEOPLE STRUGGLE THROUGHOUT THEIR LIVES TO READ 434 BRAIN MAPPING HELPS US UNDERSTAND THE ORGANIZATION OF LANGUAGE IN THE BRAIN 435 CORTICAL STIMULATION MAPPING SHOWS LOCALIZED FUNCTIONS WITHIN LANGUAGE AREAS 436 RESEARCHERS AT WORK NONINVASIVE STIMULATION MAPPING SHOWS THAT THE LANGUAGE AREAS OF THE NORMAL BRAIN MAY CONTAIN A VARIETY OF FUNCTIONAL ZONES 437 FUNCTIONAL NEUROIMAGING TECHNOLOGIES IDENTIFY BRAIN REGIONS THAT ARE ACTIVE DURING SPECIFIC LANGUAGE TASKS 438 PART II CEREBRAL ASYMMETRY 439 THE LEFT AND RIGHT BRAINS ARE DIFFERENT 439 DISCONNECTION OF THE CEREBRAL HEMISPHERES REVEALS THEIR INDIVIDUAL PROCESSING SPECIALIZATIONS 440 THE TWO HEMISPHERES PROCESS INFORMATION DIFFERENTLY IN NORMAL HUMANS 441 DOES THE LEFT HEMISPHERE HEAR WORDS AND THE RIGHT HEMISPHERE HEAR MUSIC? 442 DO LEFT-HANDED PEOPLE HAVE UNUSUAL BRAIN ORGANIZATION? 443 DEFICITS IN SPATIAL PERCEPTION FOLLOW RIGHT-HEMISPHERE DAMAGE 444 IN PROSOPAGNOSIA, FACES ARE UNRECOGNIZABLE 445 BOX 15.1 THE WADA TEST 445 IMAGE 9 TABLE OF CONTENTS PART III RECOVERY OF FUNCTION 447 REHABILITATION AND RETRAINING CAN HELP RECOVERY FROM STABILIZATION AND REORGANIZATION ARE CRUCIAL FOR RECOVERY B R A IN A ND S P N AL C O RD LN JURY 4 49 OF FUNCTION 447 BOX 15.3 THE AMAZING RESILIENCE OF A CHILD S BRAIN 450 BOX 15.2 CONTACT SPORTS CAN BE COSTLY 448 CHAPTER 15 VISUAL SUMMARY 452 APPENDIX A-1 REFERENCES R-1 GLOSSARY G-1 AUTHOR INDEX AI-1 ILLUSTRATION CREDITS IC-1 SUBJECT INDEX SI-1
any_adam_object 1
author Watson, Neil V. 1962-
Breedlove, S. Marc 1954-
author_GND (DE-588)14401730X
(DE-588)1163745138
author_facet Watson, Neil V. 1962-
Breedlove, S. Marc 1954-
author_role aut
aut
author_sort Watson, Neil V. 1962-
author_variant n v w nv nvw
s m b sm smb
building Verbundindex
bvnumber BV040996484
callnumber-first Q - Science
callnumber-label QP376
callnumber-raw QP376
callnumber-search QP376
callnumber-sort QP 3376
callnumber-subject QP - Physiology
classification_rvk CZ 1300
ctrlnum (OCoLC)799091134
(DE-599)BVBBV040996484
dewey-full 612.8/2
dewey-hundreds 600 - Technology (Applied sciences)
dewey-ones 612 - Human physiology
dewey-raw 612.8/2
dewey-search 612.8/2
dewey-sort 3612.8 12
dewey-tens 610 - Medicine and health
discipline Psychologie
Medizin
format Book
fullrecord <?xml version="1.0" encoding="UTF-8"?><collection xmlns="http://www.loc.gov/MARC21/slim"><record><leader>01646nam a2200433zc 4500</leader><controlfield tag="001">BV040996484</controlfield><controlfield tag="003">DE-604</controlfield><controlfield tag="005">20191220 </controlfield><controlfield tag="007">t|</controlfield><controlfield tag="008">130514s2012 xxua||| |||| 00||| eng d</controlfield><datafield tag="010" ind1=" " ind2=" "><subfield code="a">2012000922</subfield></datafield><datafield tag="020" ind1=" " ind2=" "><subfield code="a">9780878939336</subfield><subfield code="c">pbk.</subfield><subfield code="9">978-0-87893-933-6</subfield></datafield><datafield tag="020" ind1=" " ind2=" "><subfield code="a">0878939334</subfield><subfield code="c">pbk.</subfield><subfield code="9">0-87893-933-4</subfield></datafield><datafield tag="035" ind1=" " ind2=" "><subfield code="a">(OCoLC)799091134</subfield></datafield><datafield tag="035" ind1=" " ind2=" "><subfield code="a">(DE-599)BVBBV040996484</subfield></datafield><datafield tag="040" ind1=" " ind2=" "><subfield code="a">DE-604</subfield><subfield code="b">ger</subfield><subfield code="e">aacr</subfield></datafield><datafield tag="041" ind1="0" ind2=" "><subfield code="a">eng</subfield></datafield><datafield tag="044" ind1=" " ind2=" "><subfield code="a">xxu</subfield><subfield code="c">US</subfield></datafield><datafield tag="049" ind1=" " ind2=" "><subfield code="a">DE-11</subfield></datafield><datafield tag="050" ind1=" " ind2="0"><subfield code="a">QP376</subfield></datafield><datafield tag="082" ind1="0" ind2=" "><subfield code="a">612.8/2</subfield></datafield><datafield tag="084" ind1=" " ind2=" "><subfield code="a">CZ 1300</subfield><subfield code="0">(DE-625)19229:</subfield><subfield code="2">rvk</subfield></datafield><datafield tag="100" ind1="1" ind2=" "><subfield code="a">Watson, Neil V.</subfield><subfield code="d">1962-</subfield><subfield code="e">Verfasser</subfield><subfield code="0">(DE-588)14401730X</subfield><subfield code="4">aut</subfield></datafield><datafield tag="245" ind1="1" ind2="0"><subfield code="a">The mind's machine</subfield><subfield code="b">foundations of brain and behavior</subfield><subfield code="c">Neil V. Watson, S. Marc Breedlove</subfield></datafield><datafield tag="264" ind1=" " ind2="1"><subfield code="a">Sunderland, Mass.</subfield><subfield code="b">Sinauer Associates</subfield><subfield code="c">c2012</subfield></datafield><datafield tag="300" ind1=" " ind2=" "><subfield code="a">getr. Zählung</subfield><subfield code="b">Ill.</subfield><subfield code="c">28 cm</subfield></datafield><datafield tag="336" ind1=" " ind2=" "><subfield code="b">txt</subfield><subfield code="2">rdacontent</subfield></datafield><datafield tag="337" ind1=" " ind2=" "><subfield code="b">n</subfield><subfield code="2">rdamedia</subfield></datafield><datafield tag="338" ind1=" " ind2=" "><subfield code="b">nc</subfield><subfield code="2">rdacarrier</subfield></datafield><datafield tag="500" ind1=" " ind2=" "><subfield code="a">Includes bibliographical references and index</subfield></datafield><datafield tag="650" ind1=" " ind2="4"><subfield code="a">Brain</subfield><subfield code="v">Textbooks</subfield></datafield><datafield tag="650" ind1=" " ind2="4"><subfield code="a">Brain</subfield><subfield code="x">Physiology</subfield><subfield code="v">Textbooks</subfield></datafield><datafield tag="650" ind1=" " ind2="4"><subfield code="a">Human behavior</subfield><subfield code="x">Physiological aspects</subfield><subfield code="v">Textbooks</subfield></datafield><datafield tag="650" ind1=" " ind2="4"><subfield code="a">Psychobiology</subfield><subfield code="v">Textbooks</subfield></datafield><datafield tag="650" ind1=" " ind2="4"><subfield code="a">Neurophysiology</subfield><subfield code="v">Textbooks</subfield></datafield><datafield tag="650" ind1=" " ind2="4"><subfield code="a">Neuropsychology</subfield><subfield code="v">Textbooks</subfield></datafield><datafield tag="700" ind1="1" ind2=" "><subfield code="a">Breedlove, S. Marc</subfield><subfield code="d">1954-</subfield><subfield code="e">Verfasser</subfield><subfield code="0">(DE-588)1163745138</subfield><subfield code="4">aut</subfield></datafield><datafield tag="856" ind1="4" ind2="2"><subfield code="m">SWB Datenaustausch</subfield><subfield code="q">application/pdf</subfield><subfield code="u">http://bvbr.bib-bvb.de:8991/F?func=service&amp;doc_library=BVB01&amp;local_base=BVB01&amp;doc_number=025974174&amp;sequence=000001&amp;line_number=0001&amp;func_code=DB_RECORDS&amp;service_type=MEDIA</subfield><subfield code="3">Inhaltsverzeichnis</subfield></datafield><datafield tag="943" ind1="1" ind2=" "><subfield code="a">oai:aleph.bib-bvb.de:BVB01-025974174</subfield></datafield></record></collection>
id DE-604.BV040996484
illustrated Illustrated
indexdate 2024-12-24T03:15:21Z
institution BVB
isbn 9780878939336
0878939334
language English
lccn 2012000922
oai_aleph_id oai:aleph.bib-bvb.de:BVB01-025974174
oclc_num 799091134
open_access_boolean
owner DE-11
owner_facet DE-11
physical getr. Zählung Ill. 28 cm
publishDate 2012
publishDateSearch 2012
publishDateSort 2012
publisher Sinauer Associates
record_format marc
spellingShingle Watson, Neil V. 1962-
Breedlove, S. Marc 1954-
The mind's machine foundations of brain and behavior
Brain Textbooks
Brain Physiology Textbooks
Human behavior Physiological aspects Textbooks
Psychobiology Textbooks
Neurophysiology Textbooks
Neuropsychology Textbooks
title The mind's machine foundations of brain and behavior
title_auth The mind's machine foundations of brain and behavior
title_exact_search The mind's machine foundations of brain and behavior
title_full The mind's machine foundations of brain and behavior Neil V. Watson, S. Marc Breedlove
title_fullStr The mind's machine foundations of brain and behavior Neil V. Watson, S. Marc Breedlove
title_full_unstemmed The mind's machine foundations of brain and behavior Neil V. Watson, S. Marc Breedlove
title_short The mind's machine
title_sort the mind s machine foundations of brain and behavior
title_sub foundations of brain and behavior
topic Brain Textbooks
Brain Physiology Textbooks
Human behavior Physiological aspects Textbooks
Psychobiology Textbooks
Neurophysiology Textbooks
Neuropsychology Textbooks
topic_facet Brain Textbooks
Brain Physiology Textbooks
Human behavior Physiological aspects Textbooks
Psychobiology Textbooks
Neurophysiology Textbooks
Neuropsychology Textbooks
url http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=025974174&sequence=000001&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA
work_keys_str_mv AT watsonneilv themindsmachinefoundationsofbrainandbehavior
AT breedlovesmarc themindsmachinefoundationsofbrainandbehavior