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PETER PAZMANY CATHOLIC UNIVERSITY Consortium members

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Development of Complex Curricula for Molecular Bionics and Infobionics Programs within a consortial* framework**

Consortium leader

PETER PAZMANY CATHOLIC UNIVERSITY

Consortium members

SEMMELWEIS UNIVERSITY, DIALOG CAMPUS PUBLISHER

The Project has been realised with the support of the European Union and has been co-financed by the European Social Fund ***

**Molekuláris bionika és Infobionika Szakok tananyagának komplex fejlesztése konzorciumi keretben

***A projekt az Európai Unió támogatásával, az Európai Szociális Alap társfinanszírozásával valósul meg.

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BASICS OF NEUROBIOLOGY

ORGANIZATION OF THE NERVOUS SYSTEM

Neurobiológia alapjai

Az idegrendszer szerveződése

ZSOLT LIPOSITS

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DEVELOPMENT OF THE NERVOUS SYSTEM

FIRST WEEK OF LIFE: FERTILIZATION, SEGMENTATION, MORULA, BLASTOCYST DIFFERENTIATION, IMPLANTATION

SECOND WEEK OF LIFE: AMNION AND YOLK SACS, FORMATION OF

EPIBLAST AND HYPOBLAST CELLS, BILAMINAR GERM DISC

THIRD WEEK OF LIFE: GASTRULATION, MESODERM, TRILAMINAR GERM DISC, NOTOCHORDAL PROCESS, NEURAL PLATE FORMATION FOURTH WEEK OF LIFE: FORMATION OF NEURAL TUBE, NEUROPORES

DEVELOPMENT OF NEURAL CREST PLACODES

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NEURAL TUBE: FOREBRAIN, MIDBRAIN AND HIINDBRAIN SPINAL CORD

CAVITIES OF THE BRAIN AND SPINAL CORD

NEURAL CREST: GIVES RISE TO SENSORY AND AUTONOMIC GANGLIA

PLACODES: THICKENINGS OF THE ECTODERM IN THE HEAD REGION RESULTING IN NASAL, LENS AND OTIC PLACODES

DERIVATIVES OF NEURAL TUBE, NEURAL CREST AND PLACODE

MAIN CELLULAR CONSTITUENTS OF THE NERVOUS SYSTEM

I. NEURONS II. GLIAL CELLS: FIBROUS ASTROCYTE

PROTOPLASMIC ASTROCYTE OLIGODENDROCYTE

MICROGLIA EPENDYMA

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CENTRAL NERVOUS SYSTEM (CNS)

1. BRAIN

CEREBRUM

BRAIN STEM

CEREBRAL CORTEX WHITE MATTER BASAL GANGLIA TELENCEPHALON

DIENCEPHALON

THALAMUS EPITHALAMUS METATHALAMUS SUBTHALAMUS HYPOTHALAMUS MESENCEPHALON

PONS

MEDULLA OBLONGATA

2. SPINAL CORD

NUCLEUS: CLUSTERING NEURONS IN THE CNS

CEREBELLUM

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PERIPHERAL NERVOUS SYSTEM (PNS)

STRUCTURAL UNITS

CRANIAL NERVES: I-XII SPINAL NERVES: 31 PAIRS SENSORY GANGLIA

AUTONOMIC (VEGETATIVE) GANGLIA

FUNCTIONAL TYPES OF NERVES

SOMATO-MOTOR SOMATO-SENSORY VISCERO-MOTOR VISCERO-SENSORY

GANGLION: CLUSTERING NEURONS IN THE PNS

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COMMON FEATURES OF BRAIN AND SPINAL CORD

PROTECTED BY BONES: SKULL AND VERTEBRAL COLUMN

INVESTING MEMBRANES: DURA MATER, ARACHNOID, PIA MATER SUBARACHNOID SPACE

SURROUNDED BY A LIQUID COMPARTMENT: CEREBROSPINAL FLUID (CSF)

SPECIAL SHAPE AND SURFACE ANATOMY COMPOSED BY GRAY AND WHITE MATTERS

CONTAIN CAVITIES INSIDE: BRAIN VENTRICLES, CEREBRAL AQUEDUCT, CENTRAL CANAL

ESTABLISH MULTIPLE CONNECTIONS WITH EACH OTHER

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CHARACTERISTICS OF THE BRAIN

CEREBRAL CORTEX

NEOCORTEX AND ALLOCORTEX

LOBES: FRONTAL, PARIETAL, OCCIPITAL, TEMPORAL, INSULAR CONVOLUTED GYRI

FUNCTIONAL AND TOPOGRAPHICAL MAPS HEMISPHERIC DOMINANCE

BASAL GANGLIA

PARTS: CAUDATE AND LENTIFORM NUCLEI, CLAUSTRUM, AMYGDALA CONTRIBUTES TO THE CONTROL OF THE MOTOR SYSTEM

DYSFUNCTION: DYSKINESIA THALAMUS

SUBCORTICAL, NUCLEAR COMPLEX RELAYING MOTOR, SENSORY AND LIMBIC INFORMATION TO THE CORTEX

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CHARACTERISTICS OF THE BRAIN

HYPOTHALAMUS

NEUROSECRETORY CAPACITY

CONTROLS THE PITUITARY-ENDOCRINE AXES AND AUTONOMIC FUNCTIONS BRAIN STEM

REGULATES FUNCTIONS OF CRANIAL NERVES III-XII

EXERTS CONTROL OVER THE CRANIAL PART OF THE PARASYMPATHETIC SYSTEM

HOSTS MONOAMINERGIC AND PEPTIDERGIC CELL GROUPS OF THE AROUSAL SYSTEM CONTAINS VITAL CIRCULATORY AND RESPIRATORY CENTERS

ENSURES OUTFLOW OF CSF TO THE SUBARACHNOID SPACE CEREBELLUM

DERIVATIVE OF THE METENCEPHALON 2 HEMISPHERES

VESTIBULOCEREBELLUM, SPINOCEREBELLUM, PONTOCEREBELLUM

COORDINATES DURATION, EXTENT AND FORCE OF MUSCLE CONTRACTION

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FEATURES OF THE SPINAL CORD

COLUMNAR SHAPE WITH 2 ENLARGEMENTS

SEGMENTED: 8 CERVICAL, 12 THORACIC, 5 LUMBAR, 5 SACRAL, 1-2 COCCYGEAL GRAY MATTER ORGANIZED IN COLUMNS

WHITE MATTER DIVIDED INTO FUNICULI

STRUCTURE OF THE SPINAL SEGMENT AND SPINAL NERVES:

1. SPINAL CORD SEGMENT

2. VENTRAL ROOT FIBERS (MOTOR FUNCTIONS)

3. DORSAL ROOT FIBERS + DORSAL ROOT GANGLION (SENSORY FUNCTIONS) 4. SPINAL NERVE

5. DORSAL RAMUS 6. VENTRAL RAMUS SPINAL REFLEXES

SPINAL INJURIES

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PERIPHERAL NERVOUS SYSTEM: THE SOMATIC PART

CRANIAL AND SPINAL NERVES CARRY SOMATOMOTOR AND SOMATOSENSORY FIBERS SOMATOMOTOR NERVES INNERVATE SKELETAL MUSCLES

THE LOWER MOTONEURONS AND THE INNERVATED STRIATED MUSCLE FIBERS FORM MOTOR UNITS THAT EXECUTE THE ACTIVE MOVEMENTS

THE COMPLEX UPPER MOTONEURON SYSTEM CONTROLS THE LOWER MOTONEURONS

SOMATOSENSORY FIBERS ARE ASSOCIATED WITH SENSORY GANGLIA GANGLION CELLS HAVE PERIPHERAL AND CENTRAL PROCESSES

THE PERIPHERAL PROCESS COMMUNICATES WITH SPECIAL RECEPTORS THAT PICK UP STIMULI FROM THE INTERNAL AND EXTERNAL ENVIRONMENTS

THE CENTRAL PROCESS FORWARDS THE INFORMATION TOWARD SENSORY CENTERS

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PERIPHERAL NERVOUS SYSTEM: THE VISCERAL PART

THE ORGAN SYSTEMS ARE CONTROLLED BY THE AUTONOMIC NERVOUS SYSTEM IT HAS TWO WINGS: THE SYMPATHETIC AND PARASYMPATHETIC PARTS

ACTIONS OF THE PARASYMPATHETIC SYSTEM CONSERVE ENERGY FOR THE BODY THE SYMPATHETIC SYSTEM UTILIZES THE STORED ENERGY FOR EMERGENCY AND COUNTERACTS ACUTE CHALLENGES AFFECTING THE BODY

PARASYMPATHETIC CENTERS ARE LOCATED IN THE BRAIN STEM AND THE CAUDAL, SACRAL PART OF THE SPINAL CORD

SYMPATHETIC CENTERS ARE DISTRIBUTED IN THE THORACO-LUMBAR SEGMENTS OF THE SPINAL CORD

THE AUTONOMIC OUTFLOWS DO NOT INNERVATE DIRECTLY THE TARGET ORGANS, VEGETATIVE GANGLIONS ARE INTERPOSED THAT RELAY THE CENTRAL INFORMATION

Hivatkozások

KAPCSOLÓDÓ DOKUMENTUMOK

Embryonic Dense Loose Elastic Reticular Adipose Areolar Cartilage Bone.

PROTEIN SYNTHESIS TAKES PLACES AT THE RIBOSOMES OF THE OUTER SURFACE NEWLY SYNTHESIZED PROTEINS GET INTO THE LUMEN OF THE MEMBRANE SACKS IN CELLULAR HYPERTROPHY, RER BECOMES

THE GOLGI COMPLEX COMMUNICATES VIA MEMBRANE BOUND VESICLES WITH THE REST OF THE CELL ORGANELLES, MOST NOTABLY WITH THE

THE PREFERRED WAY OF CONDUCTING INFORMATION IN THE AXON IS FROM THE DIRECTION OF THE CELL BODY TOWARD THE

THE AXON TERMINAL CONTAINS MICROTUBULES, NEUROFILAMENT BUNDLES, MITOCHONDRIA AND POOLS OF SYNAPTIC VESICLES. ITS TERMINAL ENLARGEMENT IS

DURING DEVELOPMENT THESE AXONS ESTABLISH CLOSE CONNECTIONS WITH SCHWANN CELLS, THE PRINCIPAL GLIAL CELLS OF THE PERIPHERAL NERVOUS SYSTEM. SCHWANN CELLS (LEMMOCYTES) APPEAR ALONG

THEIR PROCESSES FILL THE GAPS AMONG NEURONS, PROJECT TO BLOOD VESSELS TO FORM THE BLOOD-BRAIN BARRIER, SURROUND AND ISOLATE SYNAPSING. NEURONAL ELEMENTS AND FORM THE INTERNAL

CAUDAL TO TERMINATION OF THE SPINAL CORD, THE MENINGES SURROUND THE BUNDLES OF THE DORSAL AND VENTRAL ROOTS (CAUDA EQUINA) OF LUMBO- SACRAL SEGMENTS. THIS IS THE PREFERRED LOCUS